undergrad2011 by Milwaukee School of Engineering

UNDERGRADUATE Academic Catalog Milwaukee School of Engineering

2011-2012

www.msoe.edu

Milwaukee School of Engineering 1025 North Broadway • Milwaukee, WI 53202-3109 (414) 277-7300 • www.msoe.edu

WELCOME Here at MSOE we continually challenge our students to perform and we challenge ourselves to improve. Graduation is the best sign of student success. Three examples of recent major improvements are: • the new freshman-to-master’s degree in civil engineering. MSOE is the only university in the state of Wisconsin to offer this innovative, five-year degree program. • with a multimillion dollar gift from Drs. Robert and Patricia Kern, MSOE recently unveiled four brandnew, cutting edge laboratories to be used by students in the biomolecular engineering program. The new construction includes a Wet Biotechnology Lab, Dry Instrumentation Lab, a BSL-II Cell Culture Facility and Senior Design Lab, as well as a student lounge area and a functional stockroom with access to all four laboratories. • our new University Scholars Program, which encourages independent, collaborative and cooperative learning and is open to electrical engineering and mechanical engineering majors. See page 11 for details.

As we need to change, we also work hard to retain certain aspects, such as: • staying ahead of new technology to ensure that students at MSOE receive the most sophisticated and relevant education available. Our European exchange program now includes several degree programs and will continue to grow. • working in teams with fellow students and alongside expert faculty, which is key to an MSOE education. • highly credentialed faculty who actively integrate their practical knowledge into the student experience, from teaching and mentoring, to undergraduate research. • students as active participants in their education — engaging in small-group efforts on campus or exciting internships and research projects at the many corporations in the Milwaukee area. • the MSOE student experience is more than academics. It includes onand off-campus activities, counseling opportunities for emotional well being, and, of course, the Kern Center, offering a venue for personal fitness and organized athletics. • students connect to the larger Milwaukee community through cultural experiences, clinicals, internships, scholastic and athletic competitions, career practice and volunteer work. During your MSOE career, I challenge you to get the very most out of your university experience and fulfill your potential. Let a variety of interests lead you to stimulating activities both in and out of the classroom.

Hermann Viets, Ph.D. President, Milwaukee School of Engineering

TABLE OF CONTENTS President’s Welcome ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~1 Table of Contents ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~2 Academic Calendar 2011-2014 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~4

General Information

University Overview ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~6 Vision and mission, institutional principles, institutional learning outcomes, MSOE constituents, MSOE Guarantee, history, location, accreditation, program offerings, University Scholars Program Enrollment Management Department ~~~~~~~~~~~~~~~~~~~~~~~~~~~14 Undergraduate admission, transfer, international, ESL, Center for Working Professionals and Graduate Studies, Business Excellence Consortium (BEC) Academic Regulations, Policies and Fees~~~~~~~~~~~~~~~~~~~~~~~~~21 Student integrity, Institutional Review Board, privacy act (FERPA), academic advising, enrollment status requirements, re-admission policy, add/drop and withdrawal, grading, grade point averages, academic standing, dean’s list and honors list, repeating and grade replacing courses, auditing and directed study, independent study, study abroad, credit by examination, final exams, graduation Student Accounts and Financial Aid ~~~~~~~~~~~~~~~~~~~~~~~~~~~~36 Tuition and fees (2011-2012 academic year), refund policy, policies for financial aid recipients, academic progress, MSOE academic scholarship policy Other Academic Resources ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~45 Applied research, library resources, disability services, Center for Entrepreneurship, Information Technology Department, technology package (notebook computer program), Grohmann Museum, Project Lead The Way, Milwaukee U.S. Export Assistance Center, Goethe House

Academic Departments - Program Outlines

Civil and Architectural Engineering and Construction Management~~~~54 Bachelor of Science in Architectural Engineering ~~~~~~~~~~~~~~~~55 Freshman-to-Master’s Degree in Civil Engineering ~~~~~~~~~~~~~~~63 Bachelor of Science in Construction Management ~~~~~~~~~~~~~~~73 Bachelor of Science in Architectural Engineering and Construction Management ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~79 Rader School of Business ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~83 Bachelor of Science in Business Management~~~~~~~~~~~~~~~~~~~85 Bachelor of Science in International Business ~~~~~~~~~~~~~~~~~~~96 Bachelor of Science in Management Information Systems ~~~~~~~~103 Minor in Business Management and Minor in Marketing and Entrepreneurship ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~111 Certifications ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~113

Electrical Engineering and Computer Science ~~~~~~~~~~~~~~~~~~~~114 Bachelor of Science in Biomedical Engineering~~~~~~~~~~~~~~~~~116 Bachelor of Science in Computer Engineering~~~~~~~~~~~~~~~~~~124 Bachelor of Science in Electrical Engineering ~~~~~~~~~~~~~~~~~~128 German Study-abroad Program~~~~~~~~~~~~~~~~~~~~~~~~~~~~~136 Bachelor of Science in Electrical Engineering Technology~~~~~~~~~141 Bachelor of Science in Software Engineering ~~~~~~~~~~~~~~~~~~~148 General Studies~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~154 Foreign Language Courses at MSOE ~~~~~~~~~~~~~~~~~~~~~~~~~~157 ESL and ESL Bridge and Intensive Programs ~~~~~~~~~~~~~~~~~~~157 Bachelor of Science or Bachelor of Arts in Technical Communication ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~159 Bachelor of Science in Technical Communication-2+2 Degree ~~~~~164 Minor in Technical Communication and Minor in German Studies~~166 Mathematics ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~169 Minor in Mathematics ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~171 Mechanical Engineering ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~172 Bachelor of Science in Engineering ~~~~~~~~~~~~~~~~~~~~~~~~~~173 Bachelor of Science in Industrial Engineering ~~~~~~~~~~~~~~~~~~178 Bachelor of Science in Mechanical Engineering ~~~~~~~~~~~~~~~~~183 German Study-abroad Program~~~~~~~~~~~~~~~~~~~~~~~~~~~~~188 Bachelor of Science in Mechanical Engineering Technology~~~~~~~191 School of Nursing ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~197 Bachelor of Science in Nursing ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~199 Physics and Chemistry ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~204 Bachelor of Science in BioMolecular Engineering ~~~~~~~~~~~~~~~206 Chemistry~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~211 Minor in Chemistry and Minor in Physics ~~~~~~~~~~~~~~~~~~~~~213 Two-degree Programs ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~216 Graduate Studies Programs ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~219 Reserve Officer Training Corps (ROTC) ~~~~~~~~~~~~~~~~~~~~~~~~~222

Course Descriptions

All courses are listed alphabetically by course letter designation ~~~~~~226

The Roster

Officers~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~362 Board of Regents ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~363 Regents Emeriti ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~365 Academic Administration ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~367 Full-time Faculty ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~367 Professors Emeriti ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~373 Business and Industrial Advisory Committees~~~~~~~~~~~~~~~~~~375 Index ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~376 Campus Map ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~379

MILWAUKEE SCHOOL OF ENGINEERING ACADEMIC CALENDAR 2011-2014

Fall Quarter (11 Weeks) Labor Day Classes Begin 8 a.m. End of Fall Quarter 5 p.m. Commencement Exercises

2011-2012 Monday, Sept. 5 Tuesday, Sept. 6 Saturday, Nov. 19 Saturday, Nov. 19

2012-2013 Monday, Sept. 3 Tuesday, Sept. 4 Saturday, Nov. 17 Saturday, Nov. 17

2013-2014 Monday, Sept. 2 Monday, Sept. 9 Saturday, Nov. 23 Saturday, Nov. 23

Winter Quarter (11 Weeks) Thanksgiving Day Classes Begin 8 a.m. Christmas Recess Begins 10 p.m. Classes Resume 8 a.m. End of Winter Quarter 5 p.m. Commencement Exercises

Thursday, Nov. 24 Monday, Nov. 28 Saturday, Dec. 17 Tuesday, Jan. 3 Saturday, Feb. 25 Saturday, Feb. 25

Thursday, Nov. 22 Monday, Nov. 26 Saturday, Dec. 22 Monday, Jan. 7 Saturday, Feb. 23 Saturday, Feb. 23

Thursday, Nov. 28 Monday, Dec. 2 Saturday, Dec. 21 Monday, Jan. 6 Saturday, March 1 Saturday, March 1

Spring Quarter (11 Weeks) Classes Begin 8 a.m. Spring Break Begins 10 p.m. Classes Resume 8 a.m. End of Spring Quarter 5 p.m. Commencement Exercises

Monday, March 5 Thursday, April 5 Monday, April 16 Saturday, May 26 Saturday, May 26

Monday, March 4 Thursday, March 28 Monday, April 8 Saturday, May 25 Saturday, May 25

Monday, March 10 Thursday, April 17* Monday, April 21 Saturday, May 24 Saturday, May 24

Summer Quarter The schedule of classes may vary during the summer term. A variety of attendance options are offered from 6- to 11- week sessions. To receive a Schedule of Classes and further information visit www.msoe.edu/registrar. All new and returning students will be notified concerning registration dates. *No break week

GENERAL INFORMATION

University Overview Vision Statement MSOE will always be at the forefront of professional education with emphasis on both theory and technology, coupled with intensive laboratories and career practice.

Mission Statement MSOE provides a sustained interactive educational climate for students to become well-rounded, technologically experienced graduates and highly productive professionals and leaders.

Institutional Principles The fundamental beliefs of Milwaukee School of Engineering are the following: • The focus is on the individual student. • Lifelong learning is essential for success. • Dedicated faculty with relevant, up-to-date experience are the heart of our teaching process. • Scientific and mathematical reasoning and processes are essential. • Applied research and evolving and interdisciplinary technologies are vital in exploiting opportunities. • The development of communication skills is needed to function effectively. • The student experience is strengthened by interaction with the business, industry and health care fields. • The development of leadership and entrepreneurial characteristics is essential. • Students, faculty, staff and volunteers all share the responsibility of learning. • Strong personal values are necessary for success. • The alumni strengthen the institution through their counsel, encouragement and support. • Freedom with responsibility is the foundation of free enterprise. • There is strength in diversity. • Global awareness must be reflected in all activities. • Initiation and acceptance of change is required to anticipate and capitalize on opportunities.

Institutional Learning Outcomes for MSOE Undergraduates A graduate of MSOE will have demonstrated competence in the areas of science and technology, society and culture and professional preparedness as defined by: I. Science and Technology Natural Science • an understanding of scientific language, scientific principles and the scientific method • an ability to conduct experiments and collect, analyze and evaluate data Mathematics • an ability to process data, select an appropriate established model and calculate the results 6

• an ability to formulate a mathematical model and estimate the reasonableness of the results Information Technology • an ability to access and organize information • an ability to evaluate and analyze collected information II. Society and Culture Humanistic Studies • familiarity with contemporary social issues, cultural and historical perspectives, and expectations of responsible citizenship • aesthetic engagement through exposure to literature, philosophy and the arts Social Interaction • an ability to work effectively as a member of a team • an ability to recognize the role of one’s discipline in the framework of social issues III. Professional Preparedness Communication Skills • an ability to communicate information, ideas and results effectively via oral, written, and visual means • an ability to produce professional quality presentations Critical Thinking • an ability to apply knowledge to problem solving and decision making • an ability to formulate creative solutions to problem solving and decision making The education embodied by these institutional learning outcomes ensures that the graduates are capable of contributing to society and growing intellectually throughout their careers and lives.

MSOE’s Constituents As an institution of higher learning, it is important that we recognize our role in serving our stakeholders, both internal and external to the university. Milwaukee School of Engineering has identified its internal and external constituencies to be: • Students • Faculty • Staff • Administrators • Alumni • Families of current and prospective students • Employers of MSOE graduates • Local and regional communities, including but not limited to, the business, educational and professional segments of those communities. We are committed to serving these constituencies. We seek to engage and to gain insights from them, and to provide them services of value.

The MSOE Guarantee This fall, millions of American students will begin their quest for a four-year college degree. However, for many, it will take five or more years to earn the degree. At some institutions, the courses needed to make steady academic progress are often unavailable to students when they need them. MSOE guarantees that will not happen to on-track students. We guarantee for a student starting and staying on track, all classes needed for graduation will be available when they need them! We also will do our best to accommodate all students, be they on track or not. We also recognize there will be times when graduates need to brush up on the subject matter from a course they have successfully completed. This is particularly important to employers who make significant investments when they recruit and hire recent graduates, expecting these new employees to be fully qualified, work-ready and professionally competent. Therefore, MSOE guarantees that graduates may refresh their knowledge by repeating any undergraduate course they took at MSOE, at no cost, within three years of graduation. This will enhance their job performance and may be initiated by the graduate or the employer. Courses retaken under the MSOE guarantee will be taken on an audit basis and no grade will be earned.

History At the turn of the 20th century, American industry began a period of rapid expansion. This accelerated the use of electrical and mechanical power. As a result, new occupations emerged in technical fields. Engineers and technicians with knowledge and skill were badly needed, but few people were available who had a combination of technical training and formal education. Industry’s need spurred the development of progressive programs of technical education. In this context, Oscar Werwath organized the School of Engineering of Milwaukee in 1903. Werwath was a practicing engineer who was a graduate of European technical universities. He was the first to plan an American engineering educational institution based on an applications-oriented curriculum. Milwaukee industries were vitally interested in this kind of training and called on Werwath to provide education and training for their employees. From the beginning, leaders of business and industry cooperated in the university’s development, and a close relationship was established that has continued throughout MSOE’s history. These early supporters realized that their future depended on educational institutions that could prepare men and women to fill the newly created engineering and managerial positions. For more than a century, MSOE has had many memorable moments, creating a rich tradition of educational excellence that has positioned MSOE as a leader among today’s universities. 8

Location MSOE has a small university atmosphere within a vibrant downtown neighborhood. The 15+ acre, user-friendly campus is located in a historic downtown district, just blocks from beautiful Lake Michigan. Milwaukee boasts 60 miles of lakeshore, 15,000 acres of parkland and hundreds of miles of bike trails, a vibrant fine arts and cultural community, major and minor league sports, a brisk live-music scene, and is famous for its more than 50 annual festivals. The city also is a business, technological and industrial center offering internships and part and full-time employment opportunities. MSOE also offers select undergraduate and graduate course work in Wisconsinâ€™s Fox River Valley, and other sites within the state.

Accreditation MSOE is accredited by the Higher Learning Commission of the North Central Association of Colleges and Schools (NCA, 230 S. LaSalle Street, Suite 7-500, Chicago, IL 60604-1411, (800) 621-7440). Individual degree programs are accredited by appropriate professional accreditation organizations as noted in each corresponding program outline.

The Academic Year The official academic calendar of MSOE is published in the front of this catalog. The academic year is divided into three 11-week quarters, September through May. Courses also are offered during the summer.

Affiliations MSOE holds institutional membership in the Wisconsin Association of Independent Colleges and Universities, the American Society for Engineering Education, the College Entrance Examination Board, the College Scholarship Service Assembly, the National Collegiate Athletic Association-Division III, the Council for the Advancement and Support of Education, Associated Schools of Construction, the College Board, American Association of Colleges of Nursing, the U.S. Green Building Council, the Southeast Wisconsin Educational Consortium and the Biotechnology Industry Organization. MSOE also is a member of the Metropolitan Milwaukee Association of Commerce, Visit Milwaukee, East Town Association and the Better Business Bureau.

Degree Programs MSOE is dedicated to preparing graduates for productive and successful careers. Programs of study provide students with ample opportunities to progress in accordance with their individual abilities and professional goals. MSOE offers undergraduate and graduate degree programs, noncredit courses and seminars, on-site and online educational offerings, and a variety of services that meet the needs of both full-time and part-time students, business and industry. Students in a baccalaureate-level curriculum are encouraged to follow a carefully planned course progression track. These tracks, as well as program details, can be found in the “Academic Departments – Program Outlines” portion of this catalog. MSOE offers the following degree programs. The undergraduate programs are described fully in this catalog. Engineering Field Bachelor’s Degrees Architectural Engineering Biomedical Engineering BioMolecular Engineering Civil Engineering (freshman-to-master’s) Computer Engineering Electrical Engineering Engineering Industrial Engineering Mechanical Engineering Software Engineering Master’s Degrees: Civil Engineering Engineering Structural Engineering Engineering Technology Field Bachelor’s Degrees: Electrical Engineering Technology* Mechanical Engineering Technology* Building and Infrastructure Engineering Field Bachelor’s Degrees: Architectural Engineering Civil Engineering Construction Management Master’s Degrees: Civil Engineering Construction and Business Management Structural Engineering Computer Field Bachelor’s Degrees: Computer Engineering Management Information Systems Software Engineering Master’s Degree: Medical Informatics** 10

Rader School of Business Bachelor’s Degrees: Business Management International Business Management Information Systems Technical Communication Master’s Degrees: Construction and Business Management Engineering Management Marketing and Export Management New Product Management Health-related Engineering Field Bachelor’s Degrees: Biomedical Engineering BioMolecular Engineering Master’s Degrees: Cardiovascular Studies Medical Informatics** Perfusion School of Nursing Bachelor’s Degree: Nursing *Transfer programs only **Offered jointly with Medical College of Wisconsin MSOE also offers several double-major, dual-degree and study-abroad programs. Graduate Degree Programs MSOE’s graduate studies programs and respective admission guidelines are detailed in a separate Graduate Catalog. To receive a Graduate Catalog or additional information, contact the Center for Working Professionals and Graduate Studies at (800) 321-6763 or wp@msoe.edu. Also see page 219 of this Undergraduate Academic Catalog. University Scholars Program The University Scholars Program (USP), which began in Fall 2010, is MSOE’s honors curriculum. The benefits of participating in the program include having classes with like-minded students, greater opportunities to pursue individual interests, integration of diverse topics and more in-depth preparation for graduate school. Also, University Scholar students will participate in settings that will hone their leadership skills through project work, professional presentations and interaction with regional leaders in various fields. The USP encourages independent, collaborative and cooperative learning. The program is currently open only to students who meet the enrollment criteria and are majoring in either electrical engineering or mechanical engineering. For more information contact the program coordinator, Dr. Cory J. Prust, at (414) 277-7334 or Enrollment Management at (800) 332-6763 or (414) 277-6763.

Study Abroad Cultural and Educational Opportunities MSOE’s study-abroad programs are once-in-a-lifetime opportunities to experience another culture in depth while taking college-level courses toward your degree. MSOE encourages its students to consider the opportunity these programs offer. Certain academic requirements are applicable — see program director for details. Business has become an endeavor without national boundaries. Changes in technology have made it easier to enter foreign markets or seek foreign suppliers. Even if your company is not international, foreign firms are entering your market or merging with your competitors. Leaders in business and engineering today need a global perspective. For the future, we expect many employees will be required to have work experience abroad, some foreign language fluency and be expected to understand the challenges that come with doing business in multiple markets. The MSOE graduate should prepare for this future by considering our study-abroad programs. Germany Electrical engineering, mechanical engineering or international business students may spend their junior year at the Lübeck University of Applied Sciences, in Lübeck, Germany. Founded in 1808, the university is similar to MSOE in that it is an applications-oriented institution. Situated near the Baltic Sea, the beautiful city of Lübeck is a center of commerce, industry and higher education, and offers a variety of recreational opportunities to young people. Much of its Middle Ages appearance is still intact in the older portion of town, which is a UNESCO World Heritage Site. The MSOE program consists of two semesters at Lübeck, with extensive breaks to travel throughout Europe. Key Features • Instruction is in English. • Participation does not delay progress toward graduation since all course work taken is integrated into the curricula of each MSOE program. • Upon graduation, students will receive two degrees, one from MSOE and another from Lübeck University of Applied Sciences. In 2009, the International Exchange Program in Electrical Engineering at MSOE received the Innovative Program Award from the Electrical and Computer Engineering Department Heads Association (ECEDHA). Czech Republic Students may study for a semester at one of the oldest and most respected technical universities in the world, Czech Technical University (CTU) in Prague, Czech Republic. Founded in 1707, CTU consists of six schools and seven institutes with some 16,000 students enrolled in engineering courses. Prague’s famed diversity of architectural styles, the distinctive bridges arching the Vltava River and narrow, winding cobbled streets make it one of the world’s most beautiful and charming cities. The city is the social and cultural center of Central Europe with an entrepreneurial energy coursing through its streets. Key Features • Instruction is in English. • Students have access to CTU course work beyond their selected major. In consultation with their academic advisor, students are thus able to select the number of credits taken at CTU that will transfer for academic credit toward their MSOE degree. (Taking classes that will not transfer to a student’s major may delay his or her progress toward a degree.) India MSOE has established relationships with Manipal University in India and other universities and programs around the world. Students wishing to study in Manipal or another off shore institution should discuss the possibility with their academic advisor or Dr. Charles S. Tritt. 12

Engineering or Engineering Technology? What is the difference between engineering and engineering technology? “Graduates of engineering programs apply scientific concepts to develop solutions to real world problems. Their job is more theoretical, involving the design of new products such as a robot that will be used in an auto manufacturing plant. Engineers require more theoretical, scientific and mathematical knowledge. At the same time, some colleges and universities offer two- and four-year engineering technology programs that prepare students for practical design and production work. Graduates of four-year engineering technology programs may get jobs similar to those obtained by graduates with a bachelor’s degree in engineering.” Source: American Society for Engineering Education website, 2002 The undergraduate engineering programs1 at MSOE: • begin with an emphasis on calculus and calculus-based sciences • have engineering courses that build on the calculus/sciences base • integrate design and applications into engineering lecture and laboratory course work • have a stronger emphasis on theory and engineering design • culminate in a major senior design experience The undergraduate engineering technology programs2 at MSOE: • introduce and integrate math and sciences as needed in the curricula • contain technical courses that occur in virtually every quarter of the programs • have an intensive laboratory and applications focus • have a moderate emphasis on theory and the design process • appeal to the student who learns best in an experientially based (hands-on) environment • culminate in a senior project experience Additional advice: Enroll in an engineering program1 if you: • desire or will need to pursue registration as a Professional Engineer (PE) • plan to pursue a career in research and development (R&D) • plan to continue your education at the graduate level in engineering (M.S. and/or Ph.D.) Additional advice: Enroll in an engineering technology program2 if you: • desire to continue your education in a program that extends and expands the educational approach of your existing A.A.S. in engineering technology degree Most importantly, choose the type of program that is consistent with your talents and interests, learning style and career goals. Please visit MSOE by contacting the Enrollment Management Department at (800) 332-6763. You also may contact the program directors of the individual academic programs (listed at www.msoe.edu/campus/prog_dir.shtml). 1 The undergraduate engineering programs at MSOE are normally offered during daytime hours with the exception of the bachelor’s degree in engineering. 2 The engineering technology programs at MSOE are normally offered during evening hours.

Enrollment Management Department Main Office: Student Life and Campus Center, CC-302 Phone: Local: (414) 277-6763 Toll Free: 1 (800) 332-6763 Fax: (414) 277-7475 E-mail: explore@msoe.edu Website: www.msoe.edu/admiss

Undergraduate Admission The university maintains its long-standing tradition as an Equal Opportunity Educator. As such, MSOE does not discriminate in its educational opportunities on the basis of an individual’s race, religion, sex, color, age, national origin, sexual orientation, physical or mental disability, veteran status or other factors prohibited by federal or state law. Applicants who are accepted for admission are considered to have intellectual ability and personal qualifications necessary to pursue successfully a course of study at MSOE on a full- or part-time basis. Under certain circumstances, students will have to augment their secondary education in preparation for college-level study. Students wishing to enroll in full-time degree programs, or those interested in part-time study in degree programs, courses and all noncredit classes, may obtain appropriate admission material by going online at www.msoe.edu/admiss or by contacting the Enrollment Management Department.

General Undergraduate Admission Guidelines MSOE reviews all prior academic experience and seeks to determine the potential for success within the applicant’s chosen field of study. In order to ensure preparation for the applicant’s chosen field of study, the following standard guidelines for admission are offered: 1) A completed admission application must be on file. 2) An official high school transcript must be submitted. 3) Graduation from an approved high school or the equivalent (GED test score of 265 prior to 2002.) Individuals that have taken the 2002 Series GED Tests must earn a minimum score of 460 on each test in the battery with a minimum total test score of 2,500. 4) Results of the American College Testing (ACT) program examination or Scholastic Aptitude Test (SAT) also are acceptable. Students who have completed 24 or more college credits, or who have been out of high school for two or more years, are not required to submit test results. All documents submitted to MSOE for consideration of admission become property of MSOE and will not be returned to the applicant at any time. A student may be granted: 1) Full acceptance: A student is accepted directly into his/her desired program of study. 2) Denied admittance: Persons denied admission to MSOE may appeal the decision, either in writing or in person, by contacting the Enrollment Management Department. 14

Transfer Students Students who wish to transfer to MSOE must submit: 1) An admission application. 2) An official transcript(s) of all previously completed college course work. 3) High school transcripts, (if less than one year or 24 semester credits of college work). 4) Transfer students who apply for financial aid are required to submit financial aid transcripts from the Financial Aid Office of any previously attended colleges. All documents submitted to MSOE for consideration of admission become property of MSOE and will not be returned to the applicant at any time. Students may be granted: 1) Full acceptance: A student is accepted directly into his/her desired program of study. 2) Denied admission: Persons denied admission to MSOE may appeal the decision, either in writing or in person, by contacting the Enrollment Management Department.

Transfer of Grades and Courses 1) Students transferring to MSOE will establish an MSOE grade point average after their first term of attendance. A student’s previous college grade point average will not be transferable. 2) A course grade of “C” or better is required to be considered for transfer. 3) All past academic work is evaluated on an individual basis with respect to courses that appear in the most recent MSOE catalog for the program to which the individual is applying, except for course work in programs where MSOE has specific articulated agreements (in which case the evaluation is per provisions in the applicable agreement). 4) Transfer credit evaluations are prepared by the department chairperson who oversees the academic program into which the student is transferring.* Transfer credit is considered provisional until the student’s subsequent MSOE course work confirms that he/she is sufficiently prepared for subsequent courses. Appeal of transfer credit evaluations should be made to the Registrar’s Office. 5) Credit for military service or work experience is determined by conference and/or examination by the academic department chairperson responsible for the material. 6) At least 50 percent of required credits for an undergraduate degree must be taken at MSOE. * The decision for specific course transfer is determined by the chairperson from the department that offers the course. 15

Nonimmigrant International Undergraduate Admission To be considered for admission, students must: 1) Complete an admission application. 2) Demonstrate their English proficiency by providing official TOEFL or the IELTS test results. The minimum test score requirements are: TOEFL Internet-Based – 79 TOEFL Paper – 550 TOEFL Computerized – 213 IELTS – 6.5 3) Submit English language translation of transcripts of all academic work showing a minimum of 12 years of academic study, including detailed grades. 4) Include a copy of a valid passport. 5) Attach the original signature sheet to the application. 6) Provide an official completed certification of financial responsibility showing funds available for the first year of study. 7) Students transferring from a school in the United States must submit an International Student Transfer Form, completed by their international student advisor. All documents submitted to MSOE for consideration of admission become property of MSOE and will not be returned to the applicant at any time. After all these documents have been received, an applicant’s entire file will be reviewed for admission. A student may receive: 1) Full acceptance: A student is accepted directly into his/her desired program of study. Some ESL requirements may need to be satisfied based on the student’s TOEFL/IELTS score. 2) Conditional admission: A student is accepted to his or her desired program of study based on their ability to complete an approved, intensive ESL program. Contact the Admission Office for a list of approved ESL programs. 3) Denied admission: Persons denied admission to MSOE may appeal the decision, either in writing or in person, by contacting the Admission Office. Note: Accepted non-immigrant foreign applicants who do not register for classes in the designated term must return the I-20 form to MSOE .

Intensive English-as-a-Second-Language (ESL ) Program Wisconsin Lutheran College (WLC) professors teach an intensive ESL curriculum on MSOE’s campus. The intensive ESL program is for students with low- to intermediate-English proficiency who have not obtained the English scores required for full admission to MSOE. Students who qualify for conditional admission to MSOE will be given the opportunity to study in the WLC intensive ESL program at MSOE. Please contact the Admission Office for information about applying.

English-as-a-Second-Language (ESL) Bridge Program MSOE’s English-as-a-Second-Language Bridge Program provides non-native English speaking international students whose TOEFL scores range between 173-213 (computer-based), 500-550 (paper based) or 61-78 (Internet-based), or whose IELTS scores range between 5.0 and 6.0, an opportunity to improve their English communication skills that are required for study at MSOE. Those international students whose TOEFL score falls within one of these ranges are accepted to MSOE’s ESL Bridge Program. During the first year, these students will be required to take one three-credit reading/writing course and one three-credit listening/speaking course each quarter. In addition to the two ESL classes each quarter, students will enroll in two MSOE courses that will count toward their major. In other words, students will take four classes each quarter; two will be ESL courses and two will be related to the student’s major. Students must pass their ESL courses with a grade of “CD” or better. Failure to do so will result in the student being subject to suspension from the university and will require a written appeal in order to continue (see page 30). After students have satisfactorily completed all six ESL courses and obtained satisfactory grades in all the MSOE courses taken during their first year at MSOE, they will be able to continue studying in their major. At the start of the second year, and for each year thereafter, students can take a full load of major classes. However, please note that with the ESL component, it will take five years to complete the student’s degree program.

Center for Working Professionals and Graduate Studies Main Office: Student Life and Campus Center CC-337 Phone: Local: (414) 277-7530 Toll-Free: 1 (800) 321-6763 Fax: (414) 277-2895 E-mail: wp@msoe.edu Website: www.msoe.edu/wp The Center for Working Professionals and Graduate Studies provides working adults the opportunity to gain an undergraduate degree through evening and, in some cases, weekend courses. The Center also offers certificates and certifications, workshops, seminars, and services for business and industry. (Note: graduate degrees are available through the Center for Working Professionals and Graduate Studies and are described in the Graduate Catalog.) Undergraduate Degrees An adult who has an associate degree or earned college credits can complete an undergraduate degree in one of the following disciplines: • Bachelor of Science in Business Management • Bachelor of Science in Electrical Engineering Technology • Bachelor of Science in Engineering • Bachelor of Science in Management Information Systems • Bachelor of Science in Mechanical Engineering Technology • Bachelor of Science in Technical Communication

Other degree programs are available for adult students but may not be completed solely through evening classes. The following documents must be submitted for enrollment in these programs: 1) A completed admission application. 2) A transcript(s) of all previously completed college work. 3) High school transcripts (if less than 24 semester credits of college work). All documents submitted to MSOE for consideration of admission become property of MSOE and will not be returned to the applicant at any time. Upon receipt of these documents, the applicant’s prior college work will be reviewed by the various academic departments and the applicant will be granted: 1) Full acceptance. The student is accepted directly into his/her desired program of study. 2) Denied admittance. Applicants denied admission to MSOE may appeal the decision, either in writing or in person, by contacting the Center for Working Professionals and Graduate Studies. 3) Non-matriculated status: The student has not been accepted into a program of study but may take up to three courses for one quarter. At the end of the quarter the student must have earned a 2.50 grade point average to be considered for full acceptance or must have completed or submitted any outstanding documents or requirements so an admission decision may be finalized. 4) Non-degree status: The student has not been accepted into a program of study but may complete up to 30 credits in their area(s) of interest.

Seminars and Workshops Seminars and workshops are offered to provide working adults the opportunity to stay abreast of cutting-edge technologies, current applications and techniques. Continuing Education Units (CEUs) are awarded to attendees. Formats range from two-hour seminars to two-day symposiums and workshops. Participants must complete a registration form and satisfy any prerequisite requirements. Certificates Certificate-level training is conducted to provide the best means to transfer knowledge. Participants are tested upon completion of the certificate program to demonstrate an understanding of the material. Some certificates are eligible for academic credit. Certifications Certifications go beyond transferring knowledge. Participants are required to pass the required certification tests and must demonstrate their ability to use the knowledge gained, thus displaying a mastery of the knowledge and skills they have learned. Participants are evaluated on their ability to successfully demonstrate the use of their knowledge.

A complete list of non-credit certificates and certifications can be found at www.msoe.edu/wp/cert/

Academic Credit for Certificates and Certifications Current MSOE students may be eligible to earn academic credit for successful completion of a certificate or certification. A current student is defined as one who has been admitted to an academic program, is in good academic standing and is currently pursuing a degree. To qualify for academic credit: 1) The student should check with his/her academic advisor to make sure the certificate or certification satisfies a credit requirement for their academic program. 2) Upon completion of the certificate or certification, the student should provide his/her academic advisor with a copy of his/her completion record, which includes attendance information and test results. The record may be obtained from the Center for Working Professionals and Graduate Studies, located in the Cudahy Student Center, CC-337. 3) The academic advisor should verify that student’s information on the student’s electronic transcript and should notify the Registrar’s Office either by e-mail or in writing that the student has satisfied the course requirements. 4) The registrar will assign the credit to the student and will file the documentation, provided by the advisor, in the student’s file. A letter grade will not be assigned to MSOE courses awarded for BEC training. A student’s academic record will include a designation of equivalent credit bearing course(s) and the notation of TR. Business Excellence Consortium (BEC) With approximately 200 member companies, the BEC is MSOE’s center for business solutions. BEC consultants work with organizations to guide them towards world-class performance. This can involve helping companies and their executive teams with strategic planning, business and continuous improvement assessments, program implementation, and coaching. The BEC provides networking opportunities for members to share best practices. Customized On-Site Training As part of its services, the BEC provides customized training programs for organizations that can include non-credit certificate- and certification-level programs. This enables training programs to take advantage of practical applications within the organization to apply the theory involved with the training. It is possible to arrange for MSOE academic courses to be taught on-site at a company’s facility.

Academic Regulations, Policies and Fees Registrar’s Office: Student Life and Campus Center, CC-365 Phone: (414) 277-7215 Fax: (414) 277-6914 The regulations and policies of MSOE include only those that are necessary to the proper organization and operation of the university. MSOE reserves the right to change the rules governing admission, tuition and the granting of degrees, or any other regulation affecting its students. Such changes shall take effect whenever the administration deems it necessary. MSOE also reserves the right to exclude, at any time, students whose conduct or standing is regarded as undesirable.

Policy on Student Integrity As an institution of higher learning, MSOE is committed above all to the educational development of its students as responsible and principled human beings. As such, MSOE is accountable to all whom it serves and by whom it is scrutinized. The university has a priority interest in promoting personal integrity and in ensuring the authenticity of its graduates’ credentials. The university is similarly mindful that the professions, business and industry are concerned with ethical behavior no less than the professional practice of their members and employees. Therefore, MSOE students—preparing for professional careers and leadership roles that are founded on responsibility and trust— must observe and be guided by the highest standards of personal integrity both in and out of the classroom. The expectations of the university with respect to academic and classroom integrity are reflected in, but not limited to, the following guidelines: 1) Each student must recognize that even a poorly developed piece of work that represents his or her best efforts is far more worthwhile than the most outstanding piece of work taken from someone else. 2) Assignments prepared outside of class must include appropriate documentation of all borrowed ideas and expressions. The absence of such documentation constitutes “plagiarism,” which is the knowing or negligent use of the ideas, expressions or work of another with intent to pass such materials off as one’s own. It is an act of plagiarism if a student purchases a paper or submits a paper, computer program, or drawing claiming it to be his/hers when he/she did not write it. 3) Each student should consistently prepare for examinations so as to reduce temptation toward dishonesty. 4) A student may not share examination answers with others for the purpose of cheating, nor should he or she, intentionally or through carelessness, give them an opportunity to obtain the same. 5) Academic dishonesty or cheating includes the act of obtaining or attempting to obtain credit for academic work through the use of any dishonest, deceptive, or fraudulent means. Cheating at MSOE includes but is not limited to: • Copying, in part or in whole, from another’s test or homework assignments, worksheets, lab reports, essays, summaries, quizzes, etc. • Copying examinations and quizzes, in whole or in part, unless approved by the instructor. 21

• Submitting work previously graded in another course unless this has been approved by the course instructor or by departmental policy. • Submitting work simultaneously presented in two courses, unless this has been approved by both course instructors or by the department policies of both departments. • Communicating electronically (unless approved by the instructor) during examinations with the intent to seek or provide answers. • Attempting to present as the student’s own work, materials or papers purchased or downloaded from the Internet. • Any other act committed that defrauds or misrepresents, including aiding or abetting in any of the actions defined above. • Claiming credit for a group project or paper when the individual student made little or no contribution to the group’s product. • Accessing reference documents during a computerized exam or quiz unless approved by the course instructor. 6) A student of integrity will not support, encourage or protect others who are involved in academic dishonesty in any way, and will furthermore attempt to dissuade another student from engaging in dishonest acts. Consequence A student who in any ways acts dishonestly in class assignments or examinations or who submits a plagiarized or unoriginal work to an instructor shall be subject to sanctions up to and including an “F” grade for the assignment, examination and/or the course at the discretion of the instructor. The numerical value of the “F” will be assigned by the instructor. If the instructor assigns an “F” for the course, the student will not be allowed to drop the course. If the instructor assigns an “F” for academic dishonesty, the student has the right to appeal following established procedures. Upon recommendation of the instructor or at his or her initiation, the chief academic officer may decide that repeated or extremely serious acts of dishonesty may be grounds for more severe disciplinary action up to and including expulsion. Actions or behaviors that are connected with instances of academic dishonesty, and which—in and of themselves—violate the MSOE Student Conduct Code, may subject a student to further sanctions provided by the Code, above and beyond any academic sanctions imposed. See the Whole Student Life Handbook for the Student Conduct Code.

Academic Dishonesty Procedure and Appeals Process The student will be notified by the faculty member either within three academic working days of the faculty member’s awareness of the problem or at the next class session attended by the student. The faculty member will notify the student using the form designed for notification. A copy of this notice will be sent to the department chairperson and the chief academic officer. The chief academic officer will retain all such reports in a permanent file. The procedure outlined in steps 1-7 will be used if a student wishes to appeal a faculty member’s judgment that academic dishonesty has occurred. If a student wishes to appeal the penalty, such an appeal must be in writing and must follow the normal grievance procedure outlined under “Grievance Process.”

1) The student will have three academic working days after delivery of the written notification to initiate an appeal to the chairperson of the department in which the faculty member serves. The student will be deemed to have waived his/her right to appeal unless he/she files the appeal with the department chairperson

within these three academic working days. The statement of appeal must specify each denial of the faculty member’s decision and the substance of the contentions upon which the student intends to rely in his/her appeal. Filing notices of appeal in accordance with these provisions shall not suspend the operations of the sanction previously declared in the case by the faculty member. The student will remain in class during the entire appeal process. 2) The department chairperson will have three academic working days in which to review the appeal. The sole purpose of the department chairperson’s review is to determine if sufficient evidence exists that the student was cheating. The chairperson must inform the student and faculty member of his/her judgment within those three academic working days. 3) The student or faculty member may further appeal to the chief academic officer within three academic working days. 4) The chief academic officer shall convene an academic review board to hear the student’s appeal within a reasonable time (if possible, within three academic working days of the appeal). The academic review board shall be made up of two department chairpersons selected by the chief academic officer, and one faculty member selected by the chief academic officer and agreed upon by the person initiating the appeal. The chief academic officer will be a nonvoting chairperson. The faculty member assigning the penalty and his/her department chairperson may not be on the board. 5) The sole purpose of the academic review board is to determine if sufficient evidence exists that the student was cheating. The academic review board shall render its decision after all sufficient evidence has been presented, but in a time period not to exceed three academic working days from the commencement of its proceedings. The decision of the academic review board in appeal cases is final and cannot be further appealed under procedures established herein. 6) All appeals established by this procedure must be in writing. 7) The student may bring a representative to any meeting established under this procedure. The faculty member may also have representation at any meeting.

Grievance Process If a student has a complaint of unfair treatment in the academic area, he/she should first consult the instructor in the course. If no mutually satisfactory solution is achieved, the chairperson of the department in which the course is being offered should be contacted next. A final appeal may be directed to the chief academic officer. MSOE’s director of human resources also may be consulted, in addition to the above officers, on matters pertaining to alleged unfair treatment because of race, gender, national origin, religion, disability or sexual orientation.

Institutional Review Board (research with human subjects) The Institutional Review Board (IRB) is an administrative body established to protect the rights and well being of human participants recruited to participate in research activities. MSOE complies with requirements set forth in Title 45, Part 46 of the code of Federal Regulations (45 CFR 46), known as the “Common Rule,” regardless of the source of project funding. 23

All students, staff and faculty at MSOE planning on conducting research involving human participants must submit an IRB protocol application for review and approval by the MSOE IRB. Review and approval must be completed before human participants are recruited and research begins. The mission of the IRB is to ensure the adequacy of the research plan, to minimize risks and to maximize the benefits for human subjects’ who participate in research. If the investigator is a student, the research must be performed under the supervision of an MSOE faculty or staff member who by his or her signature assumes responsibility for the conduct of that research with respect to the proper safeguards of the rights of participants. Research is defined (45 CFR 46.102(d)) as “a systematic investigation, including methodology, development, testing and evaluation, designed to develop or contribute to generalizable knowledge.” This definition includes formal investigations from which the results will be publicly disseminated, pilot projects, exploratory research, educational research and research undertaken by students for purposes of classroom work, independent study, senior design and change projects, surveys, master degree theses and includes research with human subjects conducted for non-academic purposes. Human participant is defined (45 CFR 46.102(f)) as “a living individual about whom an investigator conducting research obtains data through intervention or interaction with the individual or the collection of identifiable private information.” Intervention includes both physical procedures by which data is gathered (for example, blood pressure readings, exercising, equipment design, etc.) and manipulations of the subject or the subject's environment (heat, light, temperature, etc.) Interaction includes communication or interpersonal contact between the investigator and subject (interviews, focus groups, surveys, etc). Private information includes information (academic, financial, medical records, etc.) about behavior that occurs in a context in which the subject can reasonably expect that no recording is taking place or information the subject has provided for a specific purpose can reasonably expect will not be made public. Contact the IRB Administrator at (414) 277-2835 for an IRB protocol application or for more information or assistance in writing the protocol.

Family Educational Rights and Privacy Act (FERPA) MSOE is in compliance with the Family Educational Rights and Privacy Act of 1974, the purpose of which is to let the student know what educational records are kept by the university, to give the student the right to inspect such records and to ask for correction if necessary, and to control the release of such information to those who are not involved in the educational process. Under the Privacy Act, certain directory information can be made available to anyone who requests it unless the student specifically asks, in writing, that this not be done. The following is information that MSOE considers to be directory information: name, address, telephone number, email address, program, grade level, dates of attendance, enrollment status (full-time, part-time, withdrawn, not enrolled), degrees and honors received, participation in officially recognized sports and activities, previously attended institutions, class schedule, photographic, video, or electronic images, and program and promotion materials for university-related activities such as athletics, extra-curricular activities and academic competitions.

Academic

Advising

All new students must meet with their assigned advisor during their first term to ensure that they understand the curriculum and future scheduling procedures. All new students are provided with a program outline. The program outline specifically cites requirements for all required courses and the exact credit breakdown related to electives. In subsequent quarters, the advisors work with the students to ensure that students make satisfactory progress without violating prerequisites.

Student Responsibility Students at MSOE are aided in their academic pursuits by various individuals and groups including faculty, academic advisors, program directors and the Registrarâ€™s Office staff. However, each student is ultimately responsible for knowing and complying with MSOEâ€™s academic policies, procedures and deadlines. Each student is responsible for meeting all course, credit and grade point average requirements for graduation with his or her chosen degree.

Prerequisite Policy The student is responsible for ensuring that he or she has successfully completed all prerequisites before taking a course. If any prerequisites have not been successfully completed by the start of the course, the student is required to drop the course. Students in violation of this prerequisite policy are subject to removal from the course. The student will be allowed to continue in the course only if a prerequisite waiver is approved by the appropriate academic department chairperson. Prerequisites are listed in the course description section of this catalog.

Credit Hour Definition MSOE defines an academic credit hour as a minimum of one hour spent in class each week for lecture-based courses, or as a minimum of two hours spent each week in the laboratory or clinical component of a course. For each academic credit hour, MSOE further expects that a typical undergraduate student will spend two hours outside of class preparing for and studying for the class. Time spent outside of class for a typical graduate student is expected to exceed two hours. For courses featuring alternative delivery methods (e.g. blended, Internet), parity tables are maintained that document how expected class contact time is accounted for in the alternative method. Parity tables are developed by and available from the academic department or school offering the course.

Enrollment Status Requirement A student’s quarterly enrollment status is established at the close of business on Friday of the first week of the quarter. There are some circumstances where a student must maintain full-time status throughout the term (for example, athletic eligibility, international student visa status, insurance verification). Students registered for less than 12 credits will have their veteran’s benefits and financial aid award reduced. A student’s yearly enrollment status will be determined at the end of each academic year (Fall, Winter and Spring quarters) to ensure that satisfactory progress has been made. The following matrix is used to determine enrollment status and satisfactory progress: Enrollment Status Full-time Three-quarter time Half-time Other

Quarterly Status: Credits per Quarter (attempted) 12+ 9-11 6-8 1-5

Yearly Status: Completed Credits per Year (required) 36 27 18 3

Years to Complete: Bachelor’s Degree (maximum) 6 9 12 12

Progress will be monitored in yearly increments. When a student’s enrollment status does not remain the same for all quarters during the year (i.e., when it is both part-time and full-time) an average will be used to determine if satisfactory progress has been made. A student who has not made satisfactory progress will be subject to termination from MSOE. Financial aid recipients must meet all criteria outlined in the “Enrollment Status Requirement” and “Satisfactory Academic Progress Policy for Financial Aid Recipients” sections of this catalog to remain eligible for financial aid. Undergraduate students are classified by the number of credits earned as follows: Freshman 0-39 Sophomore 40-87 Junior 88-135 Senior 136 credits or more

Re-admission Policy for Undergraduate Students Students pursuing an undergraduate degree, who have been admitted to an academic program but have not completed a course for two consecutive years or longer but wish to continue their education, must apply to be re-admitted to MSOE. The student must submit: • A completed admission application to the admission office (the fee will be waived). • A transcript of all course work completed since the last time he/she applied. • A personal statement clearly outlining their educational objectives. Students may be granted: • Full acceptance: If the student’s cumulative and major GPA are equal to or greater than 2.00 and the student is in good academic standing as defined by the Undergraduate Academic Catalog (page 29) the student will be re-admitted to full acceptance to MSOE. • Other: If the student’s cumulative and/or major GPA are less than 2.00 and/or the student is not in good academic standing as defined in the Undergraduate Academic Catalog (page 29) the student will not be granted re-admission. The student must follow the procedures outlined in the Undergraduate Academic Catalog “Suspension Appeal Procedure” (page 30) to pursue re-admission to the university. 26

All newly re-admitted students must meet with an academic advisor prior to registering for classes and are responsible for completing the program of study that is current at the time of their re-admittance. The program director, in conjunction with the department chairperson, may reevaluate the student’s transcript to determine which, if any, courses previously taken may be applied to the current program of study.

Attendance Policy MSOE expects all students to attend regularly and promptly all lectures, laboratories and other sessions of courses for which they are registered. It is the student’s responsibility to add and drop classes from his or her academic schedule. Faculty have the option of developing a policy concerning grade reduction or dropping students for excessive absence from class. Any policy of this nature must be announced to the students during the first week of class and must be made available in writing upon request. A student dropped under such a policy must obtain written permission from the instructor to re-enter the class. The instructor will inform the Registrar’s Office if any student is readmitted to class. Laboratory and examination attendance is mandatory. In the event of an excused absence, arrangements shall be made with the instructor in advance for makeup. Excused absences for field trips or other university-sponsored activities require one week advanced written notice with the approval of the chief academic officer.

Adding/Dropping Courses and Changing Sections If a change of schedule is necessary, this may be done in the Registrar’s Office before 4:30 p.m. on Friday of the first week of classes. Students may neither add a course nor change sections after 4:30 p.m. on Friday of the first week. This policy must also be followed by students who want to change from credit to audit status or from audit to credit status. A student may drop a course and receive a grade of “W” after the first week and before 6 p.m. on Monday of the eighth week of classes. Drop forms are available in the Registrar’s Office. These must be completed, properly signed and received by the Registrar’s Office before the deadline for dropping courses. All students are responsible for their academic schedule. Students should not rely on instructors to drop them for non-attendance.

Withdrawal from All Classes Students who wish to drop all classes must complete a withdrawal form which is available in the Registrar’s Office. This must be done before 4:30 p.m. Friday of the 10th week of classes. Tuition refunds will be based on the date of official withdrawal, NOT on the date of last class attendance. The official withdrawal date is the date that the completed form is received by the Registrar’s Office. Should a student fail to meet the withdrawal deadline, he/she will be responsible for tuition for all scheduled classes and will receive final grades in all of them.

If a student plans to complete the current quarter but not return in a future quarter, he/she should fill out a “Notification of Intent Not to Return” form which is available in the Registrar’s Office.

Grading System (Undergraduate) Students receive letter grades in each course for which they register. Grades and their grade point equivalents are awarded on the following scale: Letter Grade A AB B BC C CD D F P S U W * NR AU AX

Grade Points (100 - 93) 4.00 (92 - 89) 3.50 (88 - 85) 3.00 (84 - 81) 2.50 (80 - 77) 2.00 (76 - 74) 1.50 (73 - 70) 1.00 (below 70) 0.00 Pass Satisfactory Unsatisfactory Withdraw from class Incomplete - grade with an asterisk (*) No grade reported Audit Audit dropped

Grade point averages (GPAs) are computed by dividing the number of grade points earned by the number of credit hours attempted. For undergraduate students, a cumulative GPA of 2.00 or higher is required for graduation.

Incomplete Grades A letter grade followed by an asterisk is a temporary grade indicating incomplete work. It is the responsibility of the student to make arrangements with the instructor to have the work completed; these arrangements must be initiated within the first two weeks of the following quarter (not including the Summer Quarter). The student must submit the required work to complete the course within the time deadline set by the instructor, but this may not be later than the end of the same quarter. If the student has not completed all work for the course after this period of time, the asterisk will be dropped and the letter grade preceding the asterisk will become the permanent grade. The letter grade preceding the asterisk is calculated into the student’s GPA. The letter preceding the asterisk represents the grade the student has earned to date. An incomplete grade is given at the discretion of the instructor. Incomplete grades are reserved for situations in which a student has done satisfactory work in a course until near the end of the term but because of extenuating circumstances, the course could not be completed.

Not Reported (NR) Grade For specific project-oriented courses (senior design for example), student grade reports may reflect a grade designation “NR” each quarter until final course requirements are satisfied, at which time all previously reported “NR” grades will be converted to final course grades. Students receiving those grades should be aware that, unlike an incomplete grade, the “NR” grade is not computed in any quarter’s GPA until a replacement grade is recorded. 28

Major Grade Point Average The major GPA is designed to show a student’s proficiency in his/her specific degree program. Major GPA is calculated after nine credits have been earned in applicable courses. A major GPA of 2.00 or higher is required for graduation. Nursing students only: A grade of “C” or better is required in all NU courses. See “School of Nursing” section for additional policies. Courses used in calculating the major GPA in each program are as follows: Architectural Engineering: AE-200, AE -2011, AE-2012, AE-3011, AE-3021, AE-2121, AE-213, AE-3112, AE-3121, AE-3621, AE-4311, AE-4712, AE-4721, EE-2503, AE-3612, AE-4731, and AE-4733, in addition to AE technical specialty classes which are Building Structural Specialty (BSS): AE-3023, AE-303, AE-304, AE-401, and AE-407 Building Environmental Specialty (BES): AE-3131, AE-3132, AE-3141, AE-411, and AE-412 Building Electrical Power Specialty (BEPS): AE-3631, AE-3641, AE-3651, AE-463, and AE-466 For students electing to pursue a dual technical specialty, both sets of technical specialty courses would count in the major GPA. For BSS students doing early entry to the MSST program or for dual-degree AE/MSST students, AE-720, AE-740, and AE-750 would replace AE-401 and AE-407 in the major GPA. Biomedical Engineering: all BE, EE and ME courses and all technical electives BioMolecular Engineering: all EB courses Business Management: all required MS courses; all concentration electives Civil Engineering: all AE, CM and CVE courses at the 100-500 levels Computer Engineering: all required CE, CS, EE and SE courses; all program electives Construction Management: all CM-300 and 400 level classes (or CM 3000 and 4000 level classes for four digit course designations); and AE-1231, AE-2212, AE-4121, AE-4412, MS-356, and MS-342 Electrical Engineering: all EE courses, CS-2510 and GE-300 Electrical Engineering Technology: all ET courses Engineering: all EE, GE, IE, ME required courses, and all technical electives Industrial Engineering: all IE courses International Business: all required MS courses at the 300 and 400 level; all concentration electives Management Information Systems: all required MS courses at the 300 and 400 level; all concentration electives Mechanical Engineering: all ME courses Mechanical Engineering Technology: all required ET, FP and MT courses at the 300 and 400 level; all technical electives Nursing: all required NU courses Software Engineering: all required CE, CS, EE and SE courses; all program electives Technical Communication (B.A. and B.S. degrees): all required EN and TC courses excluding EN-131, EN-132 and EN-241

Midterm Progress Reports Students desiring a midterm progress report may receive one from each instructor during the sixth week of the quarter. Forms for requesting this service are available in the Registrar’s Office. It is the responsibility of the student to submit requests to the instructor(s) during the fifth week of the term. The instructor(s) will return the completed form to the student in the sixth week of the term. No official record of the midterm grade is kept.

Academic Standing An undergraduate student is in good academic standing when all of the following are equal to or greater than 2.00: 1) the term grade point average, 2) the cumulative grade point average and 3) the cumulative major grade point average. (Cumulative major GPA for the purposes of academic standing is always calculated after completion of 15 major credits.) When the cumulative, term or cumulative major grade point average falls below 2.00, a student is placed on probation. Normally, a student is given one term to raise the cumulative or cumulative major average to 2.00 or above. Any student on probation whose quarter grade point average for the following term is below a 2.00 will need to appeal to the Student Advancement Committee to continue. The committee may recommend continued probation, suspension or permanent dismissal from MSOE. Typically, suspension is for a period of two academic terms. Students who have been suspended must petition the Student Advancement Committee for lifting of the suspension during the two term suspension or for readmittance following the two term suspension. A student who is placed on probation is limited to four courses per quarter. All full- and part-time undergraduate and graduate students are eligible for active membership in student organizations. A student with less than a 2.00 cumulative GPA may not have officer-level responsibilities in any student organization or extracurricular activity, serve as a student representative on any institutional committee or represent the university as a member of any MSOE athletic team. It is the student’s responsibility to inform the organization of ineligibility and the organization’s responsibility to inform the Student Activities staff. In addition, academic eligibility will be reviewed periodically by the Student Activities staff for student organizations and is reviewed quarterly by the Registrar’s Office and the Athletic Department for the intercollegiate athletics.

Suspension Appeal Procedure - Student Advancement Committee Purpose The purpose of the Student Advancement Committee is to allow for appeals on the part of those students who are suspended for academic reasons. Procedure Students submit petitions in writing to the Registrar’s Office, addressed to the Student Advancement Committee. If, in the judgment of the committee members, the student is in a position to continue with a good probability of academic success, permission is granted to continue with a probationary status. The student’s academic progress will then be closely monitored on a term-to-term basis. If a student’s written appeal is denied, the student has the option of one personal appeal to the committee during his or her academic career at MSOE. 30

Dean’s List and Honors List MSOE encourages excellence in academic achievement and, as a result, publishes the Dean’s List and Honors List each quarter. Students taking undergraduate courses who have earned at least 30 credits in residence at MSOE and have a cumulative GPA of 3.20 or higher are on the Dean’s List. Students on that list who have maintained a 3.70 or higher receive “high honors.” Students with a term GPA of 3.20 or higher, who are not on the Dean’s List, are on the Honors List.

Repeating and Grade Replacing Courses Anytime an undergraduate student repeats a class in which he or she initially earned a penalty grade, it is processed as a grade replacement. Penalty grades are defined as any final grade of CD, D or F. Grade-replaced grades will show on the transcript, but will not be averaged into the student’s grade point average. Courses in which a non-penalty grade was earned can be repeated, but they cannot be grade replaced. Courses must be retaken at MSOE to be eligible for grade replacement. Nursing students only: Any nursing student who earns a grade of “X,” “W,” “F” or “D” in any NU course, may repeat that course one time. A maximum of two NU courses may be repeated. Students who fail to achieve a grade of “C “ after repeating a course will be academically dismissed from the School of Nursing.

Grade Replacement Policy for Study-abroad Programs MSOE/Lübeck University of Applied Sciences study-abroad program participants only: Courses taken at MSOE cannot be used to grade replace any junior year Lübeck grades. All participating students are required to follow Lübeck policies regarding retaking/passing of exams and tests for Lübeck courses. All resulting Lübeck grades will be converted into MSOE grades. For all Lübeck courses MSOE students are always allowed to retake the equivalent MSOE course, if offered, but only without grade replacement.

Auditing Courses An audit is intended to provide students with an opportunity to review subject matter they have previously studied or to participate in courses to obtain information of interest to them. Since an audit does not carry any credits, auditing of noncredit courses such as seminars and short courses is not permitted. A student wanting to audit a course must have the proper prerequisites for the course. Permission to audit a course must be granted through the student’s program director or advisor. Students may not enroll for subsequent courses for credit based upon audited prerequisite subjects. Auditors may not use audited courses as a means for obtaining credit for any course or to satisfy any degree requirement. Students may change from audit to credit status or credit to audit status only until Friday of the first week of classes; fees will be adjusted accordingly. The cost to audit a course is three-fourths the regular tuition of the course for students registering for 0 to 11 credits. There is no charge for students registering for 12 to 19 credits.

Directed Study In the unusual event that an undergraduate student is unable to schedule a specific course required for graduation, the student may be eligible to register for a directed study. Directed Study provides one-on-one instruction with an MSOE faculty member. Generally, permission for such registration is granted only if the course is required in the student’s program and if the student is within 16 credits of graduation. Some courses due to their nature may not be eligible for directed study.

Rare exceptions can be made for students whose lack of pre-requisites would significantly delay them in their program of study. Appropriate forms are available, and permission must be obtained from the chairperson of the department under which the course is taught.

Independent Study An independent study gives a student the opportunity to pursue a specialized topic not covered in regularly scheduled course work. The student works closely with a faculty advisor on a project. The student must complete the appropriate Independent Study Form, available from the program director, and present it at the time of registration for the course.

Policy on Study Abroad Students wishing to engage in study abroad under programs arranged by MSOE are subject to the following: 1) Student applicants may not be on probation at the time of application and at the end of the quarter prior to scheduled departure. • Departments should have authority to set application deadlines and any appeals are to be decided by department chairs. 2) Student applicants must obtain a letter from a licensed health physician or nurse practitioner which indicates the student is fit for study abroad. 3) Student applicants must sign a statement of understanding that, during their period of study abroad, they remain bound by the policies and regulations set forth in the MSOE Student Conduct Code, as contained in the Whole Student Life Handbook, found on the Campus Intranet at http://inside.msoe.edu/files/handbook.pdf. 4) Student applicants must meet program-specific curriculum requirements (e.g. prerequisite courses) to participate in the planned activities abroad. 5) Academic departments have authority to set program-specific minimum academic requirements (e.g., meet minimum cum GPA or major GPA levels, complete an interview process).

Credit by Examination Credit by Examination is available upon recommendation of the appropriate department chairperson. The student must have completed approximately 80 percent of the course material in a classroom setting, or 60 percent of the course material plus have appropriate work experience in the same content area. Exams are not given on the basis of work experience alone. An exam can be taken only once. Students must take the exam within one year of initial enrollment at MSOE. Credits earned by exam are not considered credits earned in residence at MSOE. Typically, students who meet the following criteria are not eligible for Credit by Examination unless the student has taken additional course work or has had additional work experience that relates to the course content: • The student has dropped or failed the class at MSOE. • The student has earned a non-transferable grade less than a “C” in an equivalent course at another university. • The student earned a score less than what MSOE accepts on an Advanced Placement or International Baccalaureate exam. 32

Procedures for requesting advanced credit: 1) The student must contact the department chairperson in the area in which he or she would like to take an examination to determine if the student has sufficient background to be eligible for an exam of this nature. If possible, the student should provide any available documentation of course work completed in this content area to the chairperson at this time (transcripts, course description, syllabi, etc). 2) The student fills out a Credit by Examination form (available from the Registrarâ€™s Office) and the department chairperson signs the form indicating approval. 3) The department chairperson is responsible for selecting the instructor who will administer the exam. 4) The instructor should review the course outline and the general content of the examination with the student in advance of the examination date. 5) The non-refundable exam fee must be paid to the Student Accounts Office prior to taking the examination. The Student Accounts Office will then sign the appropriate section of the form indicating that the fee has been paid. 6) Once the exam is completed, the instructor will complete the form with the appropriate grade and submit it to the department chairperson within seven days after student takes the exam. The final grade must be 77 or above for credit to be awarded. 7) The department chairperson will complete the form and forward it to the registrar for processing. Students may also participate in the Advanced Placement Program (AP) or College Level Examination Program (CLEP) sponsored by the College Board or the International Baccalaureate Program (IB). Incoming students should call the Enrollment Management Department to see which courses would qualify for advanced placement at MSOE and what scores are required to receive credit.

Final Exam Policy A final examination is required in every credit course except in courses designated by the various departments, and that exam will be administered in the two-hour block designated. The type of examination should be in agreement with that specified in the departmental course outline and announced to the class near the beginning of the quarter. Undergraduate final examinations may not count for more than 40 percent of the final grade. The final examination period will be Monday-Friday of the eleventh week during the Fall, Winter and Spring Quarters. Day class exams will be held between 8 a.m. and 5 p.m. Night class exams will be held on a day the class usually meets between 5:30 p.m. and 10:30 p.m. at a time somewhat similar to the time the class usually meets. In the case of graduate courses that meet one evening per week, the final exam will be held on the same day as the class meets and will start at the same time as the class starts. Exams for classes meeting only on Saturday will be held on Saturday of the eleventh week. Exams for summer classes will be scheduled by the teacher. If an unavoidable conflict exists, the student will contact all teachers for resolution of the conflict. Department chairs will ultimately resolve conflicts. If a student has more than two final examinations scheduled on one day, the student is encouraged to petition individual teachers to see if one exam could be rescheduled. All written, inclass final examinations should follow the examination schedule available on the Registrarâ€™s Office website. Faculty needing to schedule examinations, other than 33

make-up examinations, at other than the regularly designated times, should obtain the written approval of the department chairperson. No classes will be held during the exam week. Voluntary (optional) class review sessions may be held. If local or national emergencies prevent the university from being open on one or more days of exam week, the exams on those days will be cancelled. Individual faculty members may give an exam if a student requests it. The exam would be given at a time arranged by the faculty member but within the next quarter, and a change of grade submitted.

Graduation Requirements Authority for the granting of degrees by MSOE and making of exceptions to standard policies lies with the chief academic officer and the Executive Educational Council. In all cases where ABET-accredited programs or other accreditations are in effect, care will be taken to ensure that all graduates meet or exceed the minimum accreditation criteria. Bachelor’s Degree Candidates Satisfactory completion of all courses prescribed in the curriculum for the particular area of study in which the degree will be granted is required. The official graduation date will be the end of the quarter in which all graduation requirements have been met. A minimum of one half of all required credits must be completed in residence at MSOE. MSOE Advanced Credit Examinations, Advanced Placement (AP) Credit, International Baccalaureate (IB) Credit, and College Level Examination (CLEP) Credit are not considered credit completed in residence at MSOE. Students enrolled in bachelor’s degree completion programs (2+2 programs) must complete the total number of credits required in the junior and senior year in residence at MSOE. For undergraduate students, a cumulative GPA of 2.00 or higher and a major GPA of 2.00 or higher are required for graduation. Undergraduate students who graduate with a cumulative GPA of between 3.20 and 3.69 will graduate with “Honors.” Students who graduate with a cumulative GPA of 3.70 or above will graduate with “High Honors.” “Honors” and “High Honors” will be notated on the student’s diploma but not on his/her transcript. Attendance and participation in formal university Commencement is required of all bachelor’s and master’s degree candidates as a prior condition for receipt of the official diploma. Minors A student who completes a bachelor’s degree at MSOE may also earn a minor in one or more areas by satisfactory completion of all the requirements stipulated for each minor. All requirements for the minor must be met by the time the student graduates with his/her bachelor’s degree. A minimum grade point average of 2.00 is required for the course work that is counted toward the minor. MSOE offers minors in the areas of chemistry, German studies, business management, marketing and entrepreneurship, mathematics, physics and technical communication. Undergraduate Double-major Candidates To receive a second bachelor’s degree from MSOE, a student must complete a minimum of 40 credits that are unique to the second degree. These credits must be over and above those that satisfied requirements for the first degree. Science and mathematics courses taken to fulfill basic second degree requirements will not count toward these 40 required credits. 34

Graduation Procedures ATTENDANCE AND PARTICIPATION IN A FORMAL UNIVERSITY COMMENCEMENT IS REQUIRED OF ALL BACHELOR’S AND MASTER’S DEGREE CANDIDATES AS A PRIOR CONDITION FOR RECEIPT OF THE OFFICIAL DIPLOMA. Students must apply for graduation in the Registrar’s Office by the dates posted on the Registrar’s Office website. For those who submit a graduation application on time, the Registrar’s Office will do a graduation credit check before the end of the first week of the term in which the student plans to graduate and notify the student by mail if additional courses are required. Students must complete all degree requirements before they may participate in the Commencement. An exception to this policy will be made for students intending to complete no more than two courses during the summer months; these students may participate in the Spring Commencement. Any other exception to this policy requiring completion of all degree requirements prior to participation in a Commencement must be requested in writing, and approved by the dean of students. Such a request must be based on unusual circumstances that would impose a significant and verifiable hardship on the student. A student completing graduation requirements by the end of a term, but who has not applied for graduation by the application deadline, may be allowed to participate in Commencement, but the receipt of the diploma may be delayed. The deadline for students to apply in the Student Life Office for the Commencement; to have their name listed in the Commencement program; and to receive a supply of invitations, printed cards, etc., is Friday of the seventh week of classes.

Student Accounts Office: Main Office: Student Life and Campus Center CC-437 Phone: (414) 277-7130 Fax: (414) 277-4535 Website: www.msoe.edu/finaid

Tuition and Fees (2011-2012 Academic Year) MSOE reserves the right to revise tuition and fees at any time. MSOE will exercise the normal means of communication announcing revisions. Undergraduate Tuition Full Time (12 - 19 credit hours)

$10,330 per quarter

Students registering for more than 19 credits will be charged $538 per credit for each credit more than 19 credits. Part Time (1 - 11 quarter credit hours) Technology Package (Laptop)

$ 538/credit hour $1,140 annually To be billed at $380/quarter

Undergraduate Application Fee

$ 25

This fee is payable with the admission application and is nonrefundable. The application fee is required for all students requesting acceptance in credit courses. Late Registration Fee

$ 45

This fee is payable for all students who register during the first week of a term and is nonrefundable. Returned Check Fee

$ 30

Checks received in payment of tuition and fees or cashed at the MSOE Bookstore, which are returned by the bank as “Non Sufficient Funds,” “Payment Stopped” or “Account Closed” will result in a charge of an additional $30 NSF check handling fee. If two checks are returned from the bank, the student will lose their check writing privileges in the Bookstore and their student account will be annotated to require all future payments to be in cash, cashier’s check, money order or credit card. Advanced Credit Examination Fee Audit Fee Continuation Fee (GC-899)

$ 60 3/4 of regular tuition $100

Directed Study Fees (Directed study fees must be paid in full at time of registration. This fee is nonrefundable even if directed study is not completed.) Per Credit Undergraduate Fee Graduation Fee

$ 860 $ 50

Due Dates Charges are due and payable by Monday of the third week of classes. Students who have settled in full all obligations to MSOE will be issued earned certificates, diplomas and transcripts, and will be permitted to register for the subsequent term. A student must have a zero balance to register for the next quarter. If payment is not received by Monday of the third week, a late payment fee may accrue at a rate of 12 percent A.P.R. (one percent per month) until paid. Students whose financial aid has not transferred to their student account as of Monday of the third week because they have not completed their financial aid paperwork, have not yet applied for financial aid or applied for financial aid late, may be charged a late payment fee on the entire outstanding balance. Students that are sponsored by a company, Department of Veterans Affairs (Chapter 31 and 33), DVR or a Foreign Embassy, who have their letter of authorization on file in the Student Accounts Office by the first day of the third week, will not be charged a late payment fee on those charges covered by a company or agency. If a student does not make payments when due, MSOE reserves the right to require full payment of the subsequent quarter before the student may register for that quarter. Agency or Employer Sponsorship of Students To allow flexibility for students sponsored by a company or agency, the following is possible: If the company/agency will allow MSOE to invoice them for the student’s education with no contingencies, a letter of authorization from the company or agency must be on file in the Student Accounts Office or must accompany the registration form. The letter of authorization must state exactly what expenses will be covered; i.e., which classes, costs, fees, books, etc. MSOE must have the letter at the time of the student’s registration each quarter. H.E.L.P. Payment Plan MSOE’s new in-house payment plan, H.E.L.P. (Helping Everyone to Learn and Pay), offers students monthly payment plans for amounts due. Students determine how much of their balance they wish to divide into monthly payments. Any amount not covered by H.E.L.P. will be due when billed. For further information, contact the H.E.L.P. administrator/senior collection specialist at (414) 277-2231. Financial Aid Disbursement All processed financial aid will transfer to your student account during the second week of the term and on a rolling basis from that time forward. Credit Balance Refund Checks If you have more financial aid disburse to your account than charges on your account you will have a credit balance. Credit balance refund checks will be processed after all financial aid has been disbursed to your account and will be mailed to your local address. Parent PLUS loan borrowers may authorize MSOE to issue a check for the remainder of any excess PLUS load funds to either themselves or to their student. This request must be submitted in writing to the Student Accounts Office. Please allow 10 days for credit balance refund checks to be processed.

Book Purchase Policy Students are able to charge their book purchases, made at the MSOE Bookstore, to their MSOE student account and will be billed for those charges on their next monthly invoice. In order to do this, students must present their MSOE student ID to the bookstore when purchasing their textbooks. You are able to charge your books to your student account during the two weeks before the term begins through the first Friday of the term (Please note that you must wait at least 24 hours after you have registered before you can charge your books this way). Students can only charge books and supplies to their account; students cannot charge MSOE apparel or souvenirs to their account. Student Invoices All registered students are mailed a paper invoice before the term begins. If you register after the first batch of invoices has been mailed, you will receive a paper invoice in the mail during week three of the term. These invoices are mailed to the legal/home/permanent address you have on record with the Registrar’s Office. If you wish to have it mailed to a different address, you must contact us at payments@msoe.edu or (414) 277-7130. Please remember that you can always view your statement online at my.msoe.edu and you are responsible for all charges regardless of whether or not you receive a paper invoice in the mail. Outside Resources Reporting Requirements If you receive financial aid or financial support from other agencies, you are required by federal regulations to report the amount of support you receive from those agencies to the Financial Aid Office. Examples of such resources include monies received from the Department of Vocational Rehabilitation (DVR), the Trade Adjustment Act (TAA), private scholarships and employer tuition reimbursement. Dual-degree Program Charges Dual-degree programs offer the ability to complete both a bachelor’s and a master’s degree in five years. These students should complete their Free Application for Federal Student Aid as an undergraduate student. Full-time students accepted into the Master of Science in Structural Engineering dual-degree program or the Freshman-to-Master’s Civil Engineering Program are charged full-time undergraduate tuition rates and receive undergraduate financial aid for their fourth year, even though they may be taking graduate courses. (If a student enrolls in more than 19 credits, they will be charged the graduate per credit rate for any credits above 19.) During their fifth year, students enrolled in an approved dual-degree program will be charged the standard per credit charge based on the type and number of credits for which they enroll. They will still receive undergraduate financial aid for their fifth year because they have not yet graduated with a bachelor’s degree. MSOE scholarships and grants are not available to sixth-year students; therefore if a student in an approved dual-degree program must enroll for a sixth year, it is recommended that they graduate with their bachelor’s degree after the fifth year so as to be eligible for graduate-level Stafford loans in their sixth year.

Refund Policy

Tuition refunds will be based on the date of official withdrawal. The official withdrawal date is the date that the completed form is received by the Registrar’s Office. Tuition refunds will be authorized only for withdrawals approved by the Registrar’s Office.

Tuition Refund Schedule for Financial Aid Recipients • A financial aid recipient is defined as any student who has been awarded financial aid (federal, state or institutional) by the Financial Aid Office. • No tuition refund will be made for financial aid recipients who drop individual courses after 4 p.m. Friday of the first week of the quarter. • Students are charged a per-credit fee for each credit above 19 credits. If a student is registered for more than 19 credits and then drops a class, the refund on those overload credits will be based on the MSOE Tuition Refund Schedule. • Tuition refunds will only be granted to financial aid recipients who officially withdraw from ALL courses according to the following schedule: Prior to the start of the quarter During the first week of the quarter During the second week of the quarter During the third week of the quarter During the fourth week of the quarter After the fourth week of quarter

100% 100% 80% 40% 20%

Tuition Refund Tuition Refund Tuition Refund Tuition Refund Tuition Refund NO REFUND

Return of Title IV Funds Policy • If a recipient of Title IV aid officially withdraws from all classes before completing 60 percent of the quarter, MSOE is required by law to calculate whether a portion of the student’s federal financial aid must be returned to the federal government. • The amount of federal aid the student keeps is in direct proportion to the length of time the student remained enrolled during the quarter. The amount of aid earned is determined by dividing the number of days completed in the quarter by the total number of days in the quarter. • Any funds not earned will be returned in the following order: 1) Federal Unsubsidized Direct Loan 2) Federal Subsidized Direct Loan 3) Federal Perkins Loan 4) Federal Direct PLUS Loan 5) Federal Pell Grant 6) Federal Supplemental Educational Opportunity Grant 7) Other Title IV Aid • If a student withdraws before completing 60 percent of the quarter, the student may owe a repayment to the university. A bill will be sent to the student for any balance due as a result of returning financial aid funds. • Please contact the Financial Aid Office before withdrawing to determine what aid will be returned and what you may owe MSOE. Return of State Funds Policy If a recipient of state aid officially withdraws from all classes before completing 60 percent of the quarter, MSOE is required to calculate whether a portion of the student’s state financial aid must be returned to the state. The amount of state aid the student keeps is in direct proportion to the length of time the student remained enrolled during the quarter. The amount of state aid earned is determined by the refund policy for each state grant. Please refer below for the refund policies of each individual state grant. 39

Talent Incentive Program Grant: • Follows the Return of State Funds Policy stated previously Wisconsin Tuition Grant: • If a student withdraws from all classes within weeks one to four and has a credit balance after the federal aid calculations are completed, then the state funds (shown above) will be refunded based on the Return of Title IV Funds Policy stated above. If the student does not have a credit balance after federal aid calculations are completed, then there is no state refund up to a zero balance. If a student withdrawals from all classes after week five, then the state funds (shown above) will not be refunded. Hearing/Visually Handicapped Program/Indian Student Assistance Grant/Minority Undergraduate Retention Grant/Academic Excellence Grant: • If a student withdraws from all classes before completing 60 percent of the quarter and has a credit balance after federal calculations are completed, then the state funds (shown above) will be refunded based on the Return of Title IV Funds Policy stated above. If the student does not have a credit balance after federal calculations are completed, then there is no state refund up to a zero balance. Any aid not earned will be returned to the state. Return of Institutional Funds Policy • If a recipient of MSOE scholarships, loans or grants officially withdraws before 4:30 p.m. Friday of week four, MSOE will calculate the amount of institutional aid the student earned and return the unearned aid back to the university. • The amount of aid earned is determined by dividing the number of days completed in the quarter by the total number of days in the quarter. Tuition Refund Schedule for Students NOT Receiving Financial Aid • This refund schedule is for 11-week classes. For shorter classes, please contact the Student Accounts Office. • Tuition refunds will be made for students not receiving financial aid who officially withdraw from one or more courses, except for those who retain full-time status, according to the following schedule: Prior to the start of the quarter During the first week of the quarter During the second week of the quarter During the third week of the quarter During the fourth week of the quarter After the fourth week of quarter

100% 100% 80% 40% 20%

Tuition Refund Tuition Refund Tuition Refund Tuition Refund Tuition Refund NO REFUND

Tuition Variance Committee The purpose of the Tuition Variance Committee is to allow appeals for those students having extenuating circumstances they believe warrant a tuition or refund exception to the existing policy. Students must submit their appeal in writing to the Student Accounts Office, addressed to the Tuition Variance Committee. The committee will then discuss the appeal to determine whether any tuition adjustment should be considered. The appeal should include as much detail as possible and also include any

documentation that would help verify the facts in the appeal. It should also include a proposed fair financial resolution. For details please refer to the Tuition and Fees section on the Financing Your Education Web page on MSOE’s website. All appeal letters must be submitted in writing and mailed to: Attn: Tuition Variance Committee MSOE, Student Accounts Department 1025 N. Broadway Milwaukee, WI 53202 Typical reasons for which exemptions to policies may be considered, but not guaranteed: • Student who has medical issues (must provide documentation). • Death of an immediate family member. • Extended periods of physical or mental illness of a student’s immediate family member who is dependent upon the student for support and documented by a physician. (If you prefer, medical documentation can be submitted to the director of counseling services.) • Error in academic advising resulting in inappropriate course enrollment— substantiated by advisor and department chairperson. • Military obligations – if you are in the military and are called up to active duty you should contact the registrar directly. Typical reasons for which exemptions to policies are not considered: • Changes in employment schedule or workload. • Personal errors in judgment involving availability of finances, academic ability or time management. • Dissatisfaction with the course content or delivery of instruction. (These concerns should be directed toward the appropriate department chairperson.) • Issues related to company tuition reimbursement programs. (These matters should be handled with the student’s individual company.) Residence Hall Room and Meal Refund Policy Room Fees In the event of an academic termination or decision by the student to terminate his or her student status, refunds of housing fees will be authorized according to the below refund schedule. All refunds are determined by the actual move-out date. This is the date that all keys and the room condition report are turned in at the Housing Office. This may be done only during posted business hours. Keys and/or forms may not be turned in to Public Safety personnel. Before the start of the quarter During the first week of the quarter During the second week of the quarter During the third week of the quarter During the fourth week of the quarter During the fifth week of the quarter After the fifth week:

100% (less $75 room reservation fee) 90% 80% 70% 60% 50% NO REFUND

In the event of termination of residency due to disciplinary action, students will be held financially responsible for the entire quarterly room fee.

Meal Plan Fees In the event of an academic termination or decision by the student to terminate his or her student status, refunds of meal plan fees will be authorized according to the below refund schedule. The meal plan contract period runs from the beginning of Fall Quarter through the end of Spring Quarter. At the end of the contract period: NO REFUND (All meals and points must be used or they will be lost.) Before the end of the contract period: Balance under $35 Balance over $35

NO REFUND Balance minus a $35 administrative fee

Note: Meals carried over each quarter will be refunded at $2.50 per meal. Calculation of Termination Date The date of termination used in calculating refunds is the day that all keys, Room Condition Reports, and other items have been turned into the Housing Office. This may only be done between 7:30 a.m. and 5 p.m. during regular business days unless otherwise specified. The week of termination is calculated beginning at 12:01 a.m. Monday and ending at 12 midnight the following Sunday. Technology Package Refund Policy Technology package refunds will be made for students who officially withdraw from ALL classes and return their laptop to the Information Technology Department (IT) according to the following schedule: Prior to the start of the quarter During the first week of the quarter During the second week of the quarter During the third week of the quarter During the fourth week of the quarter After the fourth week of the quarter

100% 100% 80% 40% 20% NO REFUND

Should a laptop not be returned, all efforts will be made by IT to contact the student to arrange for return of the laptop. The Use Agreement that the student signed requires that the student return the equipment to the university within five days prior to the expiration or termination of the Use Agreement. The Use Agreement begins the first day of the first month following the date that this Use Agreement is signed or upon delivery of the equipment, whichever is earlier. The “Use Agreement Period” shall extend from the Use Agreement begin date to the user’s graduation date from MSOE. When the user becomes a non-registered student of MSOE, the Use Agreement is terminated and the laptop must be returned. MSOE will take legal action to retrieve the equipment or its value from the user. Questions regarding the technology package refund policy should be directed to IT.

Policies for Financial Aid Recipients Satisfactory Academic Progress Policy for MSOE Financial Aid Recipients In accordance with federal regulations, financial aid recipients are required to complete a minimum percentage of credits attempted, (defined as the Quantitative Component of Satisfactory Academic Progress) as well as maintain a cumulative grade point average (CGPA) (known as the Qualitative Component of Satisfactory Academic Progress) that would lead to the attainment of a degree. 42

Quantitative In accordance with federal regulations, students must successfully complete at least 67 percent of cumulative credits attempted. The maximum time frame to complete a degree is within 150 percent of the published length of the degree program. To determine the published length of a degree program, please refer to the programâ€™s track listed in the Undergraduate Academic Catalog. 1) Students will be monitored at the end of the each academic term including summer. 2) Students not meeting the minimum percentage after a given academic term will be placed on financial aid warning for their next term of attendance. 3) While on financial aid warning, the student is still eligible for financial aid but the student must meet the required minimum percentage. a. If the student completes enough credits to meet the minimum percentage, the financial aid warning will be lifted. b. If the student does not complete enough credits to meet the minimum percentage during the financial aid warning term, the student will be placed on financial aid suspension and will not qualify for financial aid for their next term of attendance. Please note: 1) Your enrollment level is determined by what you are registered for as of 4:30 p.m. Friday of week one each term. 2) Transfer credits accepted from other schools will be counted toward completion of the degree program as both hours attempted and hours completed. 3) Attempted credits include successfully completed credits (grades A-D), earned Fâ€™s, incompletes, withdrawals and courses that were grade replaced. 4) Completed credits include successfully completed credits (grades A-D). 5) MSOE scholarships, grants, and loans are awarded for a maximum of six full-time years (18 full-time terms). Qualitative In accordance with federal regulations, a studentâ€™s CGPA must be reviewed at the end of each term of attendance including summer. 1) Students who have not maintained a 2.00 CGPA at the time of review will receive a financial aid warning for their next term of attendance. 2) While on financial aid warning, the student is still eligible for financial aid, but the student must reestablish a 2.00 CGPA. a. If the student reestablishes a 2.00 CGPA or higher, the financial aid warning will be lifted. b. If the student does not reestablish the 2.00 CGPA during the financial aid warning term, the student will be placed on financial aid suspension and will not qualify for financial aid for their next term of attendance.

Appeals Students may appeal the suspension of their financial aid eligibility. Appeals should be submitted in writing to the Financial Aid Office, addressed to the director. The director, in consultation with Financial Aid Office staff members, will review the appeal and notify the student in writing regarding the appeal. Students will be able to file an appeal on the following basis: The death of a relative, injury or illness of the student, or other documented extenuating circumstances. Students must also indicate why the student failed to make satisfactory progress and what has changed in the student’s situation that will allow the student to demonstrate satisfactory academic progress. Students are limited to two suspension appeal requests while attending MSOE. Financial Aid Probation Students whose appeals have been approved will be placed on financial aid probation for their next term of attendance. While on financial aid probation, the student must re-establish a 2.00 CGPA and/or complete at least 67 percent of cumulative credits attempted. If it is determined prior to the probation term that the student will not meet the requirements of the financial aid probation during the probation term, an academic plan will be developed for the student. Academic Plan MSOE’s Academic Plan will be developed on individual basis which may include academic performance requirements, meetings with an academic advisor, Learning Resource Center and/or MSOE Counseling Services. Failure to meet the requirements of MSOE’s Academic Plan will result in suspension of financial aid the next term of attendance. MSOE Academic Scholarship Policy • Full-time enrollment must be maintained in order to remain eligible for scholarships. Full-time enrollment is defined as being registered for 12 or more credits per quarter and is determined by your enrollment status as of 4:30 p.m. on Friday of week one of each quarter. • Initial scholarship reviews and revisions will be conducted at the end of a student's second full-time academic year of study. • Students who have achieved a cumulative GPA (CGPA) of 3.01-4.00 at the time of review will receive an increase of $500 to the scholarship for the next academic year. Scholarship increases in subsequent years will be $500 if a student maintains a CGPA of 3.01-4.00 as determined at the end of year review. • Students who have never received a scholarship in the past, but who at the time of review have completed full-time studies in the previous academic year and have achieved a CGPA of 2.50-3.00 will receive an initial scholarship amount of $6,000 for the next academic year. Students who have achieved a CGPA of 3.01-4.00 will receive an initial scholarship of $8,000 for the next academic year. Subsequent adjustments will be addressed as stated above. • The MSOE Academic Scholarship may be extended to a sixth full-time year (up to 18 full-time quarters). Please note that there is a separate MSOE Presidential Scholarship policy. Recipients of MSOE’s Presidential Scholarship can contact the Financial Aid Office for a copy of this policy.

Repeated Course Work Your enrollment level is determined by what you are registered for as of 4:30 p.m. Friday of week one each term. Repeated courses will be included in the determination of your enrollment status for financial aid purposes. Successfully completed courses that have been repeated more than once will not be considered when determining your enrollment status.

Other Academic Resources Library Resources The Walter Schroeder Library is a service-oriented facility committed to providing scholarly, educational, and other types of information resources and services to the MSOE community—including students, faculty and staff—in response to the educational, research, administrative and social concerns of the university. The collection consists of books, periodicals, newspapers, master’s theses, microforms, selected senior design projects, electronic databases and media programs. The library houses a number of special collections, including the Fred Portz, Sr. Special Chemistry Collection. The library’s catalog, Horizon, can be accessed via the Internet. The library’s website is available at www.msoe.edu/library. In addition to maintaining its collection of materials, the library offers a number of other services, including interlibrary loan, InfoPass (a program that permits students to borrow items directly from local libraries), database training, library instruction, the ASTM standards delivery service, and extensive research and documentation help. The library provides access to several bibliographic and full-text databases, available both on campus and remotely. Electronic books and journals are also made available by the library via the campus network and the library website. Through its extensive database services, the library offers access to more than 80,000 electronic journals and more than 30,000 e-books. Important database services include IEEE/IEL, ScienceDirect, JSTOR, EI Compendex, and a variety of databases from ProQuest and EbscoHost. A popular paperback book lounge area, an elegant conference meeting room (the Schroeder Room), group study rooms, scanners, a digital photocopier/printer, Internet research desktop and laptop computers and free printing are available, as well as food and beverage vending machines and café seating. Study rooms and several study areas are networked and the library is wireless. A math/physics drop-in tutoring lab, sponsored by the Learning Resource Center, is hosted by the library. The library also houses archives that document the history of the university. In cooperation with the Center for BioMolecular Modeling (CBM), the library additionally maintains a unique Model Lending Library that makes available on loan several of the physical biomolecular models produced by the CBM. The library regularly features unique exhibits.

Applied Research Main Office: Allen-Bradley Hall of Science, S-149 Phone: (414) 277-7195 Fax: (414) 277-7470

Applied Technology CenterTM (ATC) MSOE’s philosophy of an applications-oriented education – a full theoretical base plus hands-on technological experience – is exemplified by its research arm, the Applied Technology Center™. The ATC is well known for its success in the transfer of technology from the laboratory to the marketplace so that new discoveries and inventions strengthen economic development, protect the environment and benefit human life. The ATC uses MSOE staff, faculty and student expertise to solve technological problems confronting business and industry. There are a number of opportunities for students to contribute to important cutting-edge developments while interacting with faculty, staff, industry and government. Students fulfill the roles of research assistants as part-time or summer employees. 45

The Applied Technology Center undertakes hundreds of projects annually supporting business, industry and governmental sectors with research, design, development and evaluation of products, processes and manufacturing systems. Staff can construct and evaluate prototypes and assist in providing technology transfer, helping to fulfill the global objectives of applying engineering talents for the betterment of life for all people. Some of the areas include: • Center for BioMolecular Modeling • Rapid Prototyping Center • Fluid Power Institute™ • Engineering Research Center for Compact and Efficient Fluid Power1 • Wisconsin Energy Research Consortium2 • Clinical and Translational Science Institute3 • Photonics and Applied Optics Center • Construction Science and Engineering Center • Center for Sustainability • High Speed Video and Motion Analysis • Electrical and Computer Programs • Professional Education

The Center for BioMolecular Modeling creates unique physical models of molecular structures using rapid prototyping and animation technologies. The center works with research scientists to create custom models of the proteins whose structures they are investigating. The center also works closely with educators at both the secondary and post-secondary levels to create innovative products that make the molecular world real for students. The center is unique in the world, bringing together the disciplines of engineering, structural biology and computer visualization. The Students Understanding eNergy (SUN) Project has developed new physical and digital models to help teachers, high school students and undergraduates better understand how moving electrons power life during cellular respiration and photosynthesis. Rapid Prototyping Center (RPC) offers students opportunities to work with faculty, staff and a consortium of client-members (such as Bombardier Recreational Products and Kohler Co.) to reduce product development cycle time and develop products using the technology of rapid prototyping. Rapid Prototyping (RP) is a process that enables a 3D object to be created quickly and automatically from computer data. MSOE is the only university in the world to have multiple machines that use each of the five leading types of RP techniques. The RPC also is extending the use of rapid prototyping through research projects as diverse as biomolecular and biomedical modeling, architectural modeling and manufacturing tooling. Rapid prototyping programs at MSOE currently include the Rapid Prototyping Consortium that comprises more than 60 industrial and educational members.

1 With

University of Minnesota, Purdue University, Georgia Tech, University of Illinois, Vanderbilt University, North Carolina A&T.

2 With 3

Marquette University, UW-Milwaukee, UW-Madison and several industrial partners

With Medical College of Wisconsin, Marquette University, UW-Milwaukee, Froedtert Hospital, Children’s Hospital of Wisconsin, Milwaukee VA Medical Center and BloodCenter of Wisconsin.

RP Research is a separate research arm of the center, which leverages advanced manufacturing processes and new computer-assisted design processes to produce a new class of materials and components. Combining a number of new and existing processes, RP Research has successfully produced objects within the broad category of functional-graded materials (FGMs) that were previously considered impossible to produce. Patents emerging from RP Research projects are now licensed and in use globally. Fluid Power Institute™(FPI), one of the first centers of its kind in the country, remains a pioneer in research, mechatronics and fluid power education. Through its state-of-the-art facilities it conducts a variety of performance, endurance and environmental evaluations of components and systems. FPI also performs component and system design, modeling and simulation, system integration and prototyping, and develops and delivers various educational programs. A $5 million endowment from the estate of Otto J. Maha provides the potential for continued advancement of fluid power research and education.

FPI uses an interdisciplinary workforce comprised of faculty and staff from various academic departments, and undergraduate and graduate students to conduct fluid power, motion control and related industry projects. FPI’s approach utilizes mechanical, electrical, computer and software engineering along with MSOE’s Rapid Prototyping Center. MSOE is a member of the National Fluid Power Association and supports the activities of the Fluid Power Society and the Fluid Power Educational Foundation. Undergraduates, in various degree programs, may be hired beginning in their freshman or sophomore years and work 10-20 hours per week during the academic year and full time in the summer. FPI research assistants acquire two to four years of hands-on experience combined with fluid power courses, giving them excellent problem-solving and interpersonal skills. They often receive job offers upon graduation, from equipment and component manufacturers, OEM’s, distributors and users. Engineering Research Center for Compact and Efficient Fluid Power (CCEFP) develops compact, next-generation, fluid powered devices — systems that use pressurized liquids or gasses to transmit power, with applications in aerospace, agriculture, construction, health care, manufacturing, mining and transportation. Researchers are developing a range of new technologies, such as hybrid vehicles with efficient fluid power components and wearable fluid-power assisted devices that run for extended periods without external energy sources — ideal mobility aids for people with disabilities or power sources for compact machines such as emergency rescue robots. MSOE is partnered with six other leading universities. The center involves a significant number of students at the partnering universities. There are summer internship opportunities with the more than 50 companies who co-sponsor the center.

The Clinical and Translational Science Institute (CTSI), a regional biomedical collaboration of Medical College of Wisconsin, MSOE and others, involves clinical and translational science. The CTSI collaboration advocates, facilitates and fosters the continuum of research from bench to bedside to community practice. The effort capitalizes on the strong foundation of basic science and community outreach programs within the academic institutions of southeastern Wisconsin. Its goal is to diminish the barriers between disciplines and institutions and to encourage novel approaches to solving complex medical problems that draw on our complementary engineering and biotechnology expertise. 47

Photonics and Applied Optics Center comprises the Applied Optics Laboratory and the Photonics and Sensors Laboratory. The center’s laboratories are in an extremely low-vibration site that allows performance of the most sensitive optical projects and experiments. The center includes six 4-by-8-foot optical tables and a collection of optical instruments and apparatus that includes picowatt optical power meters, computer-controlled monochromators, a broad array of optical sources including lasers and light-emitting diodes and fiber optic components including an optical time-domain reflectometer. Recent activities have included consulting projects involving lasers, LEDs, sensor applications and optical fabrication for corporations both large and small. The High Speed Video and Motion Analysis system has the ability to capture – and immediately play back – events in the 1,000 to 12,000 frames per second range, enabling the user to analyze situations otherwise impossible with conventional video or the eye. Since the system is portable, it can be taken to any point of interest. Projects for industry and aerospace engineering have been conducted. The Construction Science and Engineering Center promotes innovation in the building design and construction industries by conducting applied research in structural materials and systems as well as construction methods. The center’s laboratory has approximately 2,100 square feet of floor space and a clear height of 36 feet. There is a large door for truck access and an overhead crane with two 5-ton trolleys. Specialized and adaptable structural testing systems, including a twochannel digitally controlled system, can produce loads from 50 to 500,000 pounds on specimens up to 24 feet tall. The lab has multiple computerized data acquisition capabilities and an extensive array of transducers for measuring force, displacement, and strain. Academic course activities in this laboratory ensure that MSOE graduates understand the physical realities of structural behavior and construction. MSOE has formed the new Center for Sustainability, which works to sustain, improve and promote renewable energy projects on campus and throughout Milwaukee and Wisconsin. Its scope transcends departmental boundaries and involves integration among a broad array of research and educational activities and projects. The Center for Sustainability collaborates with other universities and industry leaders on green building studies and environmental projects such as minimizing waste and improving energy efficiency, among others. Undergraduate research assistants, working with faculty, may be involved in funded environmental engineering projects. More recently, a committee of MSOE faculty, staff and students were instrumental in receiving Focus on Energy and We Energies incentive grants for a solar photovoltaic system for the Student Life and Campus Center roof. Electrical and Computer Programs include projects in which the primary technologies are software, computer hardware and electronic or electrical systems. Specialty areas include magnetic actuators and sensors as well as their use in electrohydraulic systems. Selected capabilities to create, simulate, breadboard, analyze and test electrical or software-based solutions to real world requirements are available.

Professional Education seminars at MSOE, covering topics in fluid power and motion control, offer participants opportunities to explore technological developments and current applications and techniques. The programs are designed to keep practicing engineers abreast of new developments and applications, and also to provide a basic understanding of the technology to new entrants into the field. These hands-on, application-oriented seminars are based on applied research conducted by MSOE scholars using state-of-the-art laboratories with industrial-size equipment. A state-of-the-art fluid power and motion control training unit has recently been developed. The units are universal, transportable, compact and are designed to be used for professional education programs at the customer’s site. It has been engineered to cover a variety of disciplines including hydraulics, electro-hydraulic, pneumatic, electro-pneumatic and electro-mechanical, and features state-of-the-art software, HMI loaded with MATLAB®/Simulink®, Automation Studio and customermade software. MSOE, UW-Milwaukee (UWM), Marquette University and UW-Madison, in partnership with several regional companies and foundations, have formed the Wisconsin Energy Research Consortuim (WERC). WERC’s mission is to develop an internationally recognized energy technology research center in Wisconsin and to create an infrastructure and enterprise that is capable of competing at a national level for largescale energy research projects. The center brings the best area research minds together to advance energy solutions that return benefits for the nation and generations to come. In addition, WERC influences area engineering students to consider careers in the extremely important and interesting fields of sustainability and energy.

Disability Services The Learning Resource Center offers services for students with disabilities through University Disability Services, located on the third floor of the Student Life and Campus Center. Students with disabilities can work with the disability services coordinator to receive academic accommodations that they may need due to a documented disability, such as Learning Disabilities, Aspergers Syndrome, Attention Deficit Disorder, depression or anxiety, and all physical disabilities. Students seeking assistance will work with the coordinator to develop an individual accommodation plan that will encompass all areas of their academic life. These accommodations may include assistance with note-taking, alternative text, or testing accommodations. Each plan is designed around the individual student’s needs. For questions, contact the coordinator of university disability services at (414) 277-2476.

Center for Entrepreneurship MSOE established the Uihlein-Spitzer Center for Entrepreneurship to provide resources to a flourishing mindset of entrepreneurship among MSOE faculty and students. Entrepreneurial values are instilled in students, preparing them to join business and industry in leadership roles, improving profitability and productivity. Our students develop new products, design new processes and uncover new markets. Some even start their own businesses. When it comes to entrepreneurship, MSOE students take the helm.

The Center’s efforts are directed by G. Woodrow Adkins, the Uihlein/Spitzer Chair of Entrepreneurship in the Rader School of Business. Professor Adkins draws upon MSOE faculty, experts in business and his experience as an entrepreneur and executive to provide a range of services available through the center, including: • business concept refinement. • ideation assistance. • financial resource identification. • market identification and feasibility. • business plan development. The center supports efforts to integrate entrepreneurial skills into engineering, technology and business education, such as involvement with the Kern Entrepreneurial Education Network (KEEN) grant and the National Collegiate Inventors and Innovators Alliance (NCIIA). Businesses need more than graduates who excel in their field; businesses need leaders — who think in innovative ways, plan and manage projects and use technology to bring projects to fruition. These entrepreneurial skills are key components for the future competitiveness of U.S. companies. Entrepreneurs in the United States have generated between 60 and 80 percent of all new jobs in the last decade. Entrepreneurs in small businesses represent 97 percent of all exporters of goods and are a growing sector for women and other minorities. Entrepreneurship is a big deal, driving the U.S. economy and influencing global enterprise.

Information Technology Department Information Technology Department Help Desk: S301 Phone: (414) 277-7288 www.msoe.edu/it The Information Technology Department (IT) is responsible for providing, maintaining and supporting technology-based services to both the academic and administrative sides of the MSOE community. IT focuses on using technology to effectively support the educational mission of the university, enabling tools and technology used in enrollment processes, academic courses, career placement, alumni services and more.

Technology Package MSOE leads the state in its commitment to technology; it was the first university in Wisconsin to require its students to have laptop computers. The visionary program, started in 1999, is continuously evolving to provide students immediate access to the technology that they require to better facilitate communication and collaboration between students, faculty and the public. Upon acceptance of the MSOE computer usage agreement, students are provided with laptops containing standardized software tools based on degree program, online course management systems, user training and the support required to enable effective and efficient use of technology within the academic and student life experience. Students are provided access to the MyMSOE web portal and campus intranet, with personalized and in-depth academic and student information. This access allows students to utilize the wired and wireless network access across the campus and gives them the ability to connect to the MSOE network from a remote location. The Help Desk has extensive hours available seven days per week to 50

assist with any technology issues experienced, with guaranteed loaner laptops available if required. IT also provides auxiliary services such as printing and copying and a program that enables students to use their MSOE ID card as a debit card at all campus food service facilities, the campus bookstore, and at a variety of local businesses.

Grohmann Museum One of the newest additions to MSOE’s campus is the Grohmann Museum, home to the world’s most comprehensive art collection dedicated to the evolution of human work. It serves as home to the General Studies Department where students take their courses in state-of-the-art classrooms and study the artwork and sculptures, which range from 1580 to today, as part of their course work. The museum also houses a library that students can use as a resource. The museum welcomes the public to three floors of galleries where a core collection is displayed as well as special themed exhibitions, so there is always something new to see. The museum also has a spectacular rooftop sculpture garden and amenities such as a vending café and store. The Grohmann Museum collection comprises more than 800 paintings and sculptures that reflect a variety of artistic styles and subjects that document the evolution of organized work, from farming and mining to trades like glassblowing and seaweed gathering. Later, it is machines and men embodying the paradoxes of industrialism — dark factory interiors with glowing molten metal juxtaposed with workers. The museum is named in honor of Dr. Eckhart Grohmann, an MSOE Regent, Milwaukee businessman and avid art collector, who donated the Man at Work collection to MSOE in 2001 and subsequently the funds to purchase, renovate and operate the museum that bears his name. Dr. Grohmann and his wife, Ischi, are longtime supporters of MSOE.

Project Lead The Way (PLTW) MSOE proudly serves as the National Affiliate University for PLTW in the state of Wisconsin and has been involved in the program since 2004, with a major proponent, the Kern Family Foundation. PLTW is a national program forming partnerships among public schools, higher education and the private sector to increase the quantity and quality of graduating science, technology, engineering and math professionals. PLTW offers middle- and high-school curricula that, when combined with college preparatory mathematics and science courses, is a terrific introduction to the scope, rigor and discipline that engineering and technical programs require. The Wisconsin program has grown rapidly with 200 schools participating in the 2009-2010 school year. Nationally, all 50 states and District of Columbia now participate in PLTW and it has improved the math, science and reading skills of participants as compared to students in traditional four-year, pre-college programs. Students who participate may be eligible for undergraduate college credit, and at MSOE and other institutions PLTW alumni are eligible for special scholarships. The Project Lead The Way office is located in the Student Life and Campus Center, room CC386

Milwaukee U.S. Export Assistance Center MSOE’s Rader School of Business sustains a strategic partnership with the U.S. Department of Commerce, Commercial Service’s Milwaukee Export Assistance Center. The U.S. Commercial Service has offices in more than 100 American cities and 80 countries throughout the world and assists businesses throughout America in realizing their export potential. The Milwaukee Export Assistance Center is located on MSOE’s campus in Rosenberg Hall. Our partnership provides students, alumni and members of MSOE’s Business Excellence Consortium (BEC) with a gateway to the Milwaukee Export Assistance Center’s International Trade Specialist. Staff members of the Milwaukee Export Assistance Center have many years of experience in international markets in a wide variety of industrial sectors. They are available to provide export counseling to interested Wisconsin companies.

Goethe House The Goethe House of Wisconsin is a non-profit German-American Cultural Institute serving Wisconsin since 1958. It is located on the MSOE campus in the Alumni Partnership Center. They serve as a statewide resource for information about the past and present culture of all German-speaking people. Through cultural and educational programs the Goethe House seeks to provide greater awareness of evolving German Society and, in so doing, promote strong relations, friendship and understanding between Germany and the United States. All MSOE students, and particularly those who study abroad in Germany, have ready access to this unique resource.

ACADEMIC DEPARTMENTS – PROGRAM OUTLINES

In this section you will find a program track for each major. The number sequences used under the “Quarter” heading refer to the number of lecture hours, lab hours and credit value for each course, respectively. For example, 3 – 0 – 3 represents three lecture hours a week, zero lab hours per week and a total of three credits for the course. 53

Civil and Architectural Engineering and Construction Management Department Main Office: Student Life and Campus Center, CC-69 Phone: (414) 277-7301 Fax: (414) 277-7415 Website: www.msoe.edu/ae The Civil and Architectural Engineering and Construction Management (CAECM) Department offers a Bachelor of Science in Architectural Engineering (AE), a Bachelor of Science in Construction Management (CM), a five-year, freshman-to-master’s program in civil engineering (CVE) and a Master of Science in Structural Engineering. It also offers a five-year, double-major option, which allows students to earn both the B.S. in architectural engineering and B.S. in construction management degrees. MSOE is the only university in the state of Wisconsin to offer a five-year, freshman-to-master’s program in civil engineering. The AE bachelor’s degree has concentrations in building structural, mechanical and electrical systems design. The CM bachelor’s degree emphasizes building estimating, scheduling and project management for commercial and industrial building projects. The freshman-to-master’s civil program offers specializations in structural engineering, water resources engineering and environmental engineering. The CVE program recognizes the growing expectation within the field of civil engineering of the master’s degree being the first professional level degree for the practice of civil engineering. All BS and MS degree programs within the CAECM department are supported by extensive design studios and laboratory facilities.

Faculty:

Chairperson: Dr. Deborah Jackman, P.E. Department Secretary: Maureen Rochester Professors: Dr. H. Peter Huttelmaier, Dr. Deborah Jackman, Michael J. McGeen, Dr. Douglas C. Stahl, Dr. John A. Zachar Associate Professors: Dr. Bass Abushakra, Dr. Richard A. DeVries, Robert O. Lemke, Dr. Francis Mahuta, Dr. Dudley Outcalt Assistant Professors: Dr. William Gonwa, Deanna Leitzke, Christopher Raebel, Dr. Matthew Trussoni, Blake Wentz, Dr. Jeong-Han Woo, Dr. Gulbin Ozcan Instructor: Doug Nelson Adjunct Professor: Larry Palank Adjunct Associate Professors: Don Gallo, Ken Kaszubowski, Ward Komorowski, Dr. Mahmoud Maamouri, Jeffrey MacDonald Adjunct Assistant Professors: Stephen Arant, William Cummings, James Drought, Richard Eschner, David Grassl, John Houdek, Dr. Jay Karls, Michael Schuck, Ann Woodhull Lecturers: Jeffrey Bateman, Mark Beyer, Aaron Block, Shauna Boyer, Dan Burazin, James Delain, Gert Grohmann, Michael Kempfert, Tara Kowalski, Joseph LaMonte, Timothy Larson, Anthony Luciano, Michael McGann, Kristin Morehouse, Jayme Radomski, Emilio Ramirez, Katherine Ried, Rachel Rueckert, Douglas Sauer, Jeffrey Saunders, Timothy Schneider, Robert Schumacher, Martin Sell, Matthew Tadisch, Christopher Ulm, Bryce Unger, Kathlyn Videkovich, Andrew Walther, Mark Zapp Professors Emeriti: Dr. Richard Cook, Dr. Carol B. Diggelman, Paul E. Feuerstein, Matthew W. Fuchs, John Michael Hassler

Program Director: Dr. John Zachar Office: CC-70 Phone: (414) 277-7307 Fax: (414) 277-7415 E-mail: zachar@msoe.edu This four-year bachelor of science degree program prepares engineers for careers in the engineering and design of buildings and building systems. Lecture and laboratory courses integrate theory and the practical application of design principles, practices, methods and materials.

Architectural Engineering

Bachelor of Science Architectural Engineering

Program Objectives The objectives of the Bachelor of Science in Architectural Engineering (BSAE) program are as follows: • Graduates of the BSAE program who choose to pursue registration as a Professional Engineer can, after attaining the required years of work experience stipulated by the Board of Examiners, achieve that distinction. • Graduates of the BSAE program who choose to pursue a graduate degree can achieve that distinction. • Graduates of the BSAE program will pursue opportunities to advance their professional skills through lifelong learning (e.g. graduate studies, conferences, seminars, short courses and specialty certifications). • Graduates of the BSAE program will demonstrate a commitment to their profession by participating in one or more professional societies in their area of technical specialty. • Graduates of the BSAE program will demonstrate, in their professional practices, an appreciation for sustainable design. In accordance with these objectives, the following educational program outcomes have been formulated.

Program Outcomes Program graduates will: • be knowledgeable in the mathematics and sciences areas listed below: 1) Mathematics: calculus through differential equations, probability and statistics 2) Pure sciences: calculus-based physics, general chemistry 3) Engineering sciences: statistics, mechanics of materials, thermodynamics, fluid mechanics, electronic circuits, engineering economics • be able to apply knowledge of mathematics, sciences, and engineering principles to: 1) design and conduct experiments; 2) analyze data; and 3) identify, formulate, and solve engineering problems.

• be knowledgeable in each of the basic architectural engineering curricular areas listed below that will facilitate communication and interaction with other design professionals in the development and execution of building projects. 1) Architectural design and architectural history 2) Building electrical systems (MSOE AE design specialty) 3) Building mechanical systems (MSOE AE design specialty) 4) Building structural systems (MSOE AE design specialty) • be proficient in: 1) systems design in one of the three MSOE AE design specialties; 2) building construction/construction management issues; and 3) the techniques, skills, and modern engineering tools necessary to enter the architectural engineering profession in a productive manner. • be proficient in oral and written communication. • be able to work effectively in a team environment. • be knowledgeable of the responsibilities, both professional and ethical, that are required of the architectural engineer. • be knowledgeable of the need for lifelong learning, and have the motivation to pursue it. • be knowledgeable in the humanities and social sciences and of contemporary issues necessary to understand the societal and environmental impact of the architectural engineering profession.

Design Specialties There are three design specialties offered in the architectural engineering program beginning in the junior year. Students must select one of the design specialities: • building electrical systems • building mechanical systems • building structural systems Graduates pursue diversified careers in engineering design or construction-related areas. Opportunities specific to each design specialty include the following:

Building Electrical Systems Electrical Systems Engineer – Designs and specifies electrical power, lighting and communication systems for buildings. Employed in an electrical consulting design office or in electrical design-construct offices. Electric Utility Engineer – Coordinates new building construction with building owners, design engineers and contractors, and updates customers on conservation and cost-saving opportunities.

Fire Safety/Protection Engineer – Designs various types of fire protection systems within the building. Systems include sprinkler, chemical suppression and detection devices. Heating, Ventilating and Air Conditioning (HVAC) Engineer – Designs the HVAC systems and prepares the specifications. Plumbing Engineer – Designs the water, processing fluid and waste systems for the building and for the site. Building Energy Manager/Facilities Engineer – Manages building HVAC and plumbing systems so as to optimize performance, save energy and save money.

Architectural Engineering

Building Mechanical Systems

Building Structural Systems Structural Engineer – Analyzes, designs and selects structural systems and components for various structures. Graduates are employed within the building industry (e.g., consulting engineering firms, pre-engineered building industry, steel fabrication and precast concrete systems, and other structural design areas such as construction equipment manufacturers).

Some Common Positions for All Design Specialities Building-Insurance Appraiser/Engineer or Architectural/Construction Appraiser – Provides valuation of real, tangible and intangible personal property; conducts feasibility studies; and prepares maintenance of property records for industrial and commercial owners. Construction Engineer – Manages the construction of a building project or within a specialized area (e.g., electrical, HVAC, plumbing, fire protection). Responsibilities include the scheduling of labor trades, material and equipment for the most economical and expeditious mode of constructing the building. Employed by general electrical or building environmental contractors. Plant/Facilities Engineer – The owner’s management liaison person interacting with architects, contractors and engineers in the design and construction of remodeling projects, additions and new facilities. Manages and develops such programs within the plant as energy conservation and preventative maintenance. Usually involved with fiscal budgeting, scheduling and prioritizing the facilities construction projects. Sales/Applications Engineer – Provides technical advice and application of products to the building industry’s architects, engineers and constructors. Suppliers and manufacturers of the product depend on the applications engineer to understand and communicate technical product information to the above diversified customer base.

FRESHMAN YEAR AE-100 AE-1312 EN-131 HU-100 MA-136 AE-1301 MA-137 CH-200 EN-132 AE-1231 EN-241 MA-231 PH-2010

Introduction to Architectural Engineering and Construction Management Introduction to Building Information Modeling I Composition Contemporary Issues in the Humanities Calculus for Engineers I

------------QUARTER------------1 2 3 2-2-3 1-2-1 3-0-3 3-0-3 4-0-4

Architectural Engineering Graphics Calculus for Engineers II Chemistry I Elective (HU/SS)1 Technical Composition

1-2-1 4-0-4 3-2-4 3-0-3 3-0-3

Building Construction Materials Speech Calculus for Engineers III Elective (HU/SS)1 Physics I - Mechanics TOTALS

Architectural Engineering

BACHELOR OF SCIENCE ARCHITECTURAL ENGINEERING For All Design Specialties Model Full-time Track - V6.2

3-2-4 2-2-3 4-0-4 3-0-3 3-3-4 13-4-14

14-4-15

15-7-18

Total Freshman Year Credits: 47

SOPHOMORE YEAR AE-200 AE-2212 MA-235 CH-201 GE-205

Statics Building Construction Methods Differential Equations for Engineers Chemistry II Professional Growth

AE-2011 AE-2121 MA-232 AE-225 PH-2020

Mechanics of Materials I Fundamentals of Thermodynamics Calculus for Engineers IV Specifications and Contracts Physics II - Electromagnetism and Optics

AE-213 CM-224 AE-2012 EE-2503 PH-2030

Introduction to Fluid Mechanics Construction Estimating I Mechanics of Materials II Linear Circuit Analysis Physics III - Thermodynamics and Quantum Physics TOTALS

4-0-4 2-2-3 4-0-4 3-2-4 1-0-0 3-0-3 4-0-4 3-0-3 3-0-3 3-3-4 4-0-4 3-0-3 3-0-3 3-0-3 3-3-4 14-4-15

16-3-17

Total Sophomore Year Credits: 49 1 There

are 12 credits of humanities and social science (HU/SS) electives, 6 of which must be in the humanities area (HU) and 6 must be in the social sciences area (SS).

JUNIOR YEAR

------------QUARTER------------7 8 9

AE-3011 AE-3112 AE-3612 CM-3011 GE-305 MA-262

Principles of Structural Analysis Heat Transfer and Basic Principles of HVAC Principles of Electrical Systems Design Project Management for AEs and CMs Professional Growth Probability and Statistics

AE-3021 AE-3121 AE-3621

Principles of Structural Steel and Concrete Design Principles of Fire Protection and Plumbing Design Basic Principles of Illumination and Communications Design Specialty Course2 BSS: AE-3023 BMS: AE-3131 BEPS: AE-3631 Elective (Math)3

AE-3321 AE-3311

SS-461

3-0-3 4-0-4 4-0-4 3-0-3 1-0-0 3-0-3 4-0-4 4-0-4 4-0-4 3-2-4 3-2-4 3-2-4 3-0-3

Architectural History Introduction to Building Information Modeling II Elective (Free)4 Design Specialty Course2 BSS: AE-303 and AE-304 BMS: AE-3132 and AE-3141 BEPS: AE-3641 and AE-3651 Organizational Psychology

3-0-3 1-2-1 3-0-3 7-2-8 6-4-8 7-2-8 3-0-3

TOTALS BEPS and BSS: BMS: Total Junior Year Credits: 54

18-0-17 18-0-17

18-2-19 18-2-19

17-4-18 16-6-18

AE-4311 AE-4712 AE-4412 EN-441 GE-405

AE-4721 CM-3022 AE-4121

AE-4733 AE-4731 HU-432

Architectural Design Architectural Engineering and Construction Management Design-Build Senior Project I Engineering and Building Investment Economics Professional Presentation Techniques Professional Growth Design Specialty Course2 BSS: AE-401 BMS: AE-411 BEPS: AE-463

------------QUARTER------------10 11 12 2-2-3 1-2-2 4-0-4 2-2-3 1-0-0 3-2-4 3-2-4 3-2-4

Architectural Engineering and Construction Management Design-Build Senior Project II Business and Construction Law Environmental Science in Building Construction Elective (HU/SS)1 Design Specialty Course2 BSS: AE-407 BMS: AE-412 BEPS: AE-466

1-3-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3

AE Senior Project Working Drawings Architectural Engineering and Construction Management Design-Build Senior Project III Ethics for Professional Managers and Engineers Elective (HU/SS)1 Elective (Science)5 TOTALS

Architectural Engineering

SENIOR YEAR

13-8-16

2-2-3 1-3-4 3-0-3 3-0-3 3-0-3 13-3-15

12-5-16

Total Senior Year Credits: 47 Total Credits for the Four Years: 197 1There

are 12 credits of humanities and social science (HU/SS) electives, 6 must be in humanities (HU) and 6 must be in social sciences (SS).

2All

students must choose one of the three specialty sequences of classes beginning in the winter quarter of the junior year. These specialties include: Building Structural Systems (BSS); Building Mechanical Systems (BMS); or Building Electrical Power Systems (BEPS)

3Math

electives include the following: MA-343, MA-380, MA-381, MA-382, MA-330, MA-383, MA-387.

4These

3 credits may be taken in any 200 level or above course (or equivalent, if awarded in the form of transfer credit) that is not preparatory to the program track.

5These

3 credits must be taken from the science area-CH, PH, or SC prefixed courses only.

Students are required to take the Fundamentals of Engineering (FE) exam in their senior year, as a condition of graduation. Students in the Air Force ROTC program can make the following substitutions: AF-300 for General Elective, AF-301 for EN-441, AF-401 for SS-455 (an SS elective). Accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org.

Architectural Engineering Electives Credits In Quarter Hours

Building Electrical Systems Design Specialty AE-3631 Building Electrical Power Distribution I AE-3641 Building Electrical Power Distribution II AE-3651 Building Illumination and Communications Design AE-463 Electrical Power Quality for Buildings AE-466 Project Management for Electrical Engineers

4 4 3

Building Mechanical Systems Design Specialty AE-3131 Building Mechanical Systems I AE-3132 Building Mechanical Systems II AE-3141 Plumbing and Fire Suppression Systems Design AE-411 Building Systems Controls AE-412 Energy Management Techniques

4 4 3

Building Structural Systems Design Specialty AE-3023 Advanced Structural Analysis AE-303 Soil Mechanics and Foundations AE-304 Advanced Steel Design AE-401 Advanced Concrete Design AE-407 Wood and Masonry Design

4 4 4 4 3

Technical Electives AE-417 Advanced Plumbing Systems Design AE-461 Advanced CAD with Architectural Engineering Applications AE-490 Independent Study

4 4

3 3 3

Program Director: Dr. Francis Mahuta Office: CC-60D Phone: (414) 277-7599 Fax: (414) 277-7415 E-mail: mahuta@msoe.edu Civil engineers are responsible for the design, construction and maintenance of the infrastructure necessary to support civilized society. MSOE’s five-year, freshman-to-master’s civil engineering degree program satisfies the new Civil Engineering Body of Knowledge for the 21st Century requirements developed by the American Society of Civil Engineers (ASCE). These new requirements call for civil engineers to be proficient in both technical and professional skills, including familiarity with issues of business and public administration, public policy, globalization, leadership and teamwork. Satisfying these requirements will also equip students to meet the proposed new licensing requirements developed by the National Council of Examiners for Engineering and Surveying, which call for a minimum of a master’s degree or equivalent as a prerequisite for professional engineering licensure.

Civil Engineering

Freshman-to-Master’s Degree in Civil Engineering

MSOE students will be able to specialize in one of the following three civil engineering disciplines: structural engineering, environmental engineering and water resources engineering. In addition, students may also choose to take elective course work from MSOE’s nationally-renowned construction management program. Alternatively, students may choose to use their technical electives to pursue a minor in a field such as mathematics, chemistry or physics.

Program Objectives Program objectives are broad statements that describe the career and professional accomplishments that the civil engineering (CVE) program is preparing the graduates to achieve. The program objectives of MSOE’s CVE program are as follows: • Graduates who choose to pursue registration as a professional engineer can, after attaining the required years of work experience stipulated by their state licensing board, achieve that distinction. • Graduates will pursue opportunities to advance their professional skills through life-long learning. • Graduates will demonstrate a commitment to their profession by participating in one or more professional societies in their area of technical specialization. • Graduates will apply the principles of sustainable design in their profession. Program Outcomes Program outcomes are narrower statements that describe what students are expected to know and be able to do by the time of graduation. The program outcomes of the CVE program are as follows: • Solve problems in the mathematics and sciences areas listed below, and apply this knowledge to solve well-defined civil engineering problems: • Mathematics: calculus through differential equations, probability and statistics • Natural sciences: calculus-based physics, general and organic chemistry and one additional area of natural science • Engineering sciences: statics, mechanics of materials, thermodynamics, fluid mechanics, materials science • Probability and statistics • Understand the importance of the humanities and social sciences to the practice of civil engineering • Conduct experiments and analyze the experimental results in more than one area of civil engineering according to established procedures, as well as design experiments to meet a need, conduct the experiments, and analyze and explain the resulting data • Formulate and solve an ill-defined civil engineering problem by selecting and applying appropriate techniques and tools • Design a civil engineering system or process to meet desired needs while taking into account realistic constraints such as economic, environmental, social, political, ethical, health and safety, constructability and sustainability • Analyze and solve well-defined civil engineering problems in at least four technical areas within civil engineering • Analyze and design a complex system or process in one technical area within civil engineering • Explain key concepts and processes applicable to the following subject areas: • Project management • Business management and leadership • Business/construction law and public policy • Globalization • Organize and deliver effective verbal, written, virtual and graphical communications

Function effectively as a member of a project team List attitudes supportive of the professional practice of civil engineering Demonstrate the ability for self-directed learning Apply standards of professional and ethical responsibility to determine an appropriate course of action

Specialties At MSOE, civil engineering course work provides a broad-based education touching on each of the traditional areas within the civil engineering field: structural engineering, environmental engineering, water resources engineering, transportation, construction, surveying and geotechnical engineering. Students will then gain in-depth proficiency and design skills in one of these three areas:

Civil Engineering

• • • •

Environmental Engineering Equips graduates to design systems for the production of potable water, the treatment, disposal, and reuse of wastewater, air-permitting and air-pollution control, the management of solid and hazardous wastes and the remediation of contaminated groundwater and subsurface soils. Water Resources Engineering Equips graduates to design systems to manage our natural water resources, including potable water distribution systems, wastewater collection systems, storm water conveyance systems, and the design of groundwater wells for potable water production. Structural Engineering Equips graduates to design the structures associated with buildings, bridges, dams and other infrastructure elements. The MSOE Advantage • MSOE is the first and only university in the state of Wisconsin to offer a fiveyear, freshman-to-master's degree in civil engineering. • With years of experience practicing what they teach, the professors at MSOE make phenomenal instructors and even better mentors. • The laboratories in which you learn the ins and outs of your profession are industry standard and so are the computer programs you will use. • MSOE is the only university in the state of Wisconsin to offer degrees in civil engineering, architectural engineering and construction management, giving students more choices with respect to potential career paths . • Additionally, the program offers the benefits of longstanding partnerships with business and industry leaders, as well as a comprehensive focus on student support.

FRESHMAN-TO-MASTERâ€™S DEGREE CIVIL ENGINEERING Model Full-Time Track - V1.0

FRESHMAN YEAR AE-1312 CH-200 CV-100 EN-131 MA-136 OR-100

Introduction to Building Information Modeling I Chemistry I Introduction to Civil Engineering Composition Calculus for Engineers I Freshman Orientation

AE-1301 CH-201 EN-132 HU-100 MA-137

Architectural Engineering Graphics Chemistry II Technical Composition Contemporary Issues in the Humanities Calculus for Engineers II

AE-1231 CH-222 MA-231 PH-2010

Building Construction Materials Organic Chemistry I Calculus for Engineers III Physics I - Mechanics TOTALS

SOPHOMORE YEAR AE-200 EN-241 GE-205 MA-235 PH-2020

Statics Speech Professional Growth Differential Equations for Engineers Physics II - Electromagnetism and Optics

AE-2011 AE-2121 AE-225 MA-232 PH-2030

Mechanics of Materials I Fundamentals of Thermodynamics Specifications and Contracts Calculus for Engineers IV Physics III - Thermodynamics and Quantum Physics

AE-2012 AE-213 MA-262 MS-221 SC-370

Mechanics of Materials II Introduction to Fluid Mechanics Probability and Statistics Microeconomics Geology and Geophysics TOTALS

------------QUARTER------------1 2 3 1-2-1 3-2-4 3-0-3 3-0-3 4-0-4 1-0-0 1-2-1 3-2-4 3-0-3 3-0-3 4-0-4 3-2-4 2-2-3 4-0-4 3-3-4 15-4-15

14-4-15

12-7-15

4-0-4 2-2-3 1-0-0 4-0-4 3-3-4 3-0-3 4-0-4 3-0-3 3-0-3 3-3-4 3-0-3 4-0-4 3-0-3 3-0-3 3-0-3 14-5-15

16-3-17

16-0-16

Environmental Engineering Specialty

AE-3011 CM-3011 CV-310 CV-320 GE-305 MS-342

Principles of Structural Analysis Project Management for AEs and CMs Water Resources Engineering Environmental Engineering Professional Growth Management Principles

BI-102 CV-322 CV-370 CV-440 MS-3411

Cell Biology and Genetics Environmental Laboratory Geotechnical Engineering Design of Air Pollution Control Systems Leading Project Teams

CV-380 CV-420 CV-430 MS-4545 SS-461

Transportation Engineering Municipal Wastewater Treatment Plant Design Solid Waste Engineering and Design Finance and Accounting Organizational Psychology TOTALS

SENIOR YEAR AE-4412 CV-421 CV-611 GE-405

Engineering and Building Investment Economics Unit Operations and Processes Laboratory Environmental Chemistry Elective (HU/SS)1 Elective (Technical)2 Professional Growth

CV-490 CV-614

Senior Design Project I Environmental Microbiology Elective (HU/SS)1 Elective (Technical)2 Elective (Graduate-level)3

CV-492 CV-752

Senior Design Project II Risk Assessment and Environmental Auditing Elective (HU/SS)1 Elective (Technical)2 Elective (Graduate-level)3 TOTALS

------------QUARTER------------7 8 9 3-0-3 3-0-3 3-2-4 3-2-4 1-0-0 3-0-3 3-3-4 2-2-3 3-2-4 3-0-3 3-0-3

Civil Engineering

JUNIOR YEAR

4-0-4 4-0-4 4-0-4 3-0-3 3-0-3 16-4-17

14-7-17

18-0-18

4-0-4 3-3-4 3-2-4 3-0-3 3-0-3 1-0-0 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-3 3-0-3 3-0-3 3-0-3 3-0-3 17-5-18

15-0-15

13-0-15

------------QUARTER------------13 14 15

FIFTH YEAR CM-212 CV-710 CV-760 CV-800

Surveying Environmental Statistics and Modeling Environmental Law Research and Writing Elective (HU/SS)1

CM-3022 CV-730 CV-890

Business and Construction Law Pollution Prevention and Waste Minimization Capstone Design Project I Elective (HU/SS)1 Elective (Graduate-level)3

CV-756

Environmental Project Management/ Life Cycle Cost Analysis Capstone Design Project II Ethics for Professional Managers and Engineers Elective (Graduate-level)3 Elective (Graduate-level)3

CV-892 HU-432

TOTALS

2-3-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 14-3-15

15-0-15

1 Fifteen

elective credits from the HU/SS series of courses are required: six credits from the HU series, six credits from the SS series, and three credits from the SS-45X course sequence.

2 Nine

technical elective credits are required that may be used to:

• Obtain a minor in mathematics, business management, or chemistry • Gain depth in another specialization area within the civil engineering program • Take related courses from the existing B.S. Architectural Engineering and Construction Management programs • Take courses in another field of engineering All students must submit a proposed list of course to be used to satisfy this requirement to the Program Director for review and approval prior to taking any of these credits. 3

Fifteen graduate elective credits are required; see the prescribed graduate elective course list for options.

Students are required to take the Fundamentals of Engineering (FE) exam in their senior year as a condition of graduation. Students in the Air Force ROTC program can make the following substitutions: • AF-301 for advanced TC course • AF-401 for SS-45X course

Structural Engineering Specialty JUNIOR YEAR AE-3011 CM-3011 CV-310 CV-320 GE-305 MS-342

Principles of Structural Analysis Project Management for AEs and CMs Water Resources Engineering Environmental Engineering Professional Growth Management Principles

AE-3021 AE-3023 CV-370 MS-3411

Principles of Structural Steel and Concrete Design Advanced Structural Analysis Geotechnical Engineering Elective (Math) 5 Leading Project Teams

AE-304 CV-380 CV-470 MS-4545 SS-461

Advanced Steel Design Transportation Engineering Foundation Design Finance and Accounting Organizational Psychology TOTALS

------------QUARTER------------7 8 9 3-0-3 3-0-3 3-2-4 3-2-4 1-0-0 3-0-3 4-0-4 3-2-4 3-2-4 3-0-3 3-0-3 3-2-4 4-0-4 4-0-4 3-0-3 3-0-3 16-4-17

16-4-18

17-2-18

SENIOR YEAR Engineering and Building Investment Economics Applied Finite Elements Structural Dynamics Reinforced Concrete Member Design Professional Growth Elective (Technical)2

AE-614 AE-616 CV-490

Lateral Loads on Structural Systems Structural Stability Senior Design Project I Elective (HU/SS)1 Elective (Technical)2

CV-492

Senior Design Project II Elective (HU/SS)1 Elective (Technical)2 Elective (Graduate-level)3 Elective (Graduate-level)3 TOTALS

FIFTH YEAR CV-800 CM-212

Research and Presentation Surveying Elective (HU/SS)1 Elective (Graduate-level)3 Elective (Graduate-level)3

AE-730 CV-890 CM-3022

AISC Steel Design Structural Engineering Design I 4 Business and Construction Law Elective (HU/SS)1 Elective (Graduate-level)3

CV-892 HU-432

Structural Engineering Design II 4 Ethics for Professional Managers and Engineers Elective (HU/SS)1 Elective (Graduate-level)3 Elective (Graduate-level)3 TOTALS

4-0-4 3-0-3 3-0-3 3-0-3 1-0-0 3-0-3

Civil Engineering

AE-4412 AE-610 AE-612 AE-740 GE-405

------------QUARTER------------10 11 12

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-3 3-0-3 3-0-3 3-0-3 3-0-3 17-0-16

15-0-15

13-0-15

3-0-3 2-3-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 14-3-15

15-0-15

1 Fifteen

elective credits from the HU/SS series of courses are required: six credits from the HU series, six credits from the SS series, and three credits from the SS-45X course sequence.

Nine technical elective credits are required that may be used to: • Obtain a minor in mathematics, business management, or chemistry • Gain depth in another specialization area within the civil engineering program • Take related courses from the existing B.S. Architectural Engineering and Construction Management programs • Take courses in another field of engineering All students must submit a proposed list of courses to be used to satisfy this requirement to the program director for review and approval prior to taking any of these credits.

3 Twenty-one

graduate structural engineering elective credits are required; see the prescribed graduate elective course list

for options. 4 Students

choosing the capstone project report option must substitute one graduate structural engineering elective and one graduate elective course for the AE-890/892 capstone project course sequence.

5 Math

electives may be chosen from the following: MA-330, MA-343, MA-380, MA-383, MA-387

Water Resources Engineering Specialty JUNIOR YEAR AE-3011 CM-3011 CV-310 CV-320 GE-305 MS-342

Principles of Structural Analysis Project Management for AEs and CMs Water Resources Engineering Environmental Engineering Professional Growth Management Principles

CV-410 CV-415 CV-370 MS-3411

Hydrology Hydraulics Geotechnical Engineering Elective (Math)4 Leading Project Teams

CV-380 CV-411 CV-416 MS-4545 SS-461

Transportation Engineering Storm Water Management Systems Design Analysis and Design of Sewerage Systems Finance and Accounting Organizational Psychology TOTALS

SENIOR YEAR AE-4412 CV-418 CV-611 GE-405

Engineering and Building Investment Economics Analysis and Design of Water Distribution Systems Environmental Chemistry Elective (HU/SS)1 Elective (Technical)2 Professional Growth

CV-490 CV-614

Senior Design Project I Environmental Microbiology Elective (HU/SS)1 Elective (Technical)2 Elective (Graduate-level)3

CV-492 CV-752

Senior Design Project II Rick Assessment and Environmental Auditing Elective (HU/SS)1 Elective (Technical)2 Elective (Graduate-level)3 TOTALS

------------QUARTER------------7 8 9 3-0-3 3-0-3 3-2-4 3-2-4 1-0-0 3-0-3 3-0-3 3-2-4 3-2-4 3-0-3 3-0-3 4-0-4 4-0-4 4-0-4 3-0-3 3-0-3 16-4-17

15-4-17

18-0-18

4-0-4 3-0-3 3-2-4 3-0-3 3-0-3 1-0-0 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-3 3-0-3 3-0-3 3-0-3 3-0-3 17-2-17

15-0-15

13-0-15

FIFTH YEAR Surveying Environmental Statistics and Modeling Environmental Law Research and Writing Elective (HU/SS)1

CM-3022 CV-730 CV-890

Business and Construction Law Pollution Prevention and Waste Minimization Capstone Design Project I Elective (Graduate-level)3 Elective (HU/SS)1

CV-756

Environmental Project Management/ Life Cycle Cost Analysis Capstone Design Project II Ethics for Professional Managers and Engineers Elective (Graduate-level)3 Elective (Graduate-level)3

CV-892 HU-432

TOTALS 1

2-3-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3

Civil Engineering

CM-212 CV-710 CV-760 CV-800

3-0-3 3-0-3 3-0-3 3-0-3 14-3-15

15-0-15

Fifteen elective credits from the HU/SS series of courses are required: six credits from the HU series, six credits from the SS series, and three credits from the SS-45X course sequence.

2 Nine

technical elective credits are required that may be used to: • Obtain a minor in mathematics, business management, or chemistry • Gain depth in another specialization area within the civil engineering program • Take related courses from the existing B.S. Architectural Engineering and Construction Management programs • Take courses in another field of engineering All students must submit a proposed list of course to be used to satisfy this requirement to the program director for review and approval prior to taking any of these credits.

3 Fifteen 4 Math

graduate elective credits are required; see the prescribed graduate elective course list for options.

electives may be chosen from the following: MA-330, MA-343, MA-380, MA-383, MA-387

Civil Engineering Required Specialty Courses/Elective Credits

Environmental Engineering Required Undergraduate Specialty Courses CV-322 Environmental Laboratory CV-420 Municipal Wastewater Treatment Plant Design CV-421 Unit Operations and Processes Laboratory CV-430 Solid Waste Systems Engineering and Design CV-440 Design of Air Pollution Control Systems

3 4 3 4 3

Structural Engineering Required Undergraduate Specialty Courses AE-3021 Principles of Structural Steel and Concrete Design AE-3023 Advanced Structural Analysis AE-304 Advanced Steel Design CV-470 Foundation Design AE-740 Reinforced Concrete Member Design

4 4 4 4 3

Water Resources Engineering Required Undergraduate Specialty Courses CV-410 Hydrology CV-411 Storm Water Management Systems Design CV-415 Hydraulics CV-416 Analysis and Design of Sewerage Systems CV-418 Analysis and Design of Water Distribution Systems

3 4 4 4 3

Technical Electives* AE-2212 Building Construction Methods AE-3311 Introduction to Building Information Modeling II AE-4121 Environmental Science in Building Construction AE-720 Masonry Design AE-732 Steel Design for Buildings AE-734 Connection Design AE-744 Prestressed Concrete Design AE-746 Reinforced Concrete Design AE-750 Wood Design AE-760 Modern Structural Systems AE-762 Bridge Design CM-224 Construction Estimating I CM-3013 Construction Project Financial and Cost Control CM-312 Advanced Building Construction Methods and Site Engineering Issues CM-3210 Construction Scheduling CM-325 Construction Estimating II CM-4002 Sustainable Design and Construction CV-550 Physical Hydrogeology CV-552 Contaminant Hydrogeology and Groundwater Remediation CV-554 Ground Water and Soil Remediation Technologies CV-712 Water Quality Analysis and Modeling CV-715 Open Channel Hydraulics CV-720 Design of Biological Wastewater Treatment Processes CV-722 Design of Water Treatment Systems CV-724 Industrial Wastewater Treatment CV-740 Air Permitting CV-750 Plant Safety/OSHA Issues

3 1 3 3 3 3 3 3 3 3 3 3 3 3 4 4 3 3 3 3 3 3 3 3 3 3 3

*Electives numbered 400-500 may be used to satisfy either undergraduate technical elective or graduate elective requirements (but not both); courses counting towards an undergraduate minor in mathematics, physics, chemistry, or business may also be used as undergraduate technical electives if the student successfully completes all requirements of the minor. 72

Bachelor of Science Construction Management

The degree is for students who wish to become nonresidential building construction project professionals. The rigorous program melds instruction about business administration, basic scientific and engineering principles, and construction science, building information modeling (BIM), and project management techniques to graduate professionals who are savvy about current industry practices and educated for a lifetime of learning in this challenging and rewarding career.

Construction Management

Program Director: Blake Wentz Office: CC-61B Phone: (414) 277-2204 Fax: (414) 277-7415 E-mail: wentz@msoe.edu

Program Mission The MSOE BSCM program’s mission is to provide a learning environment that incorporates the needs of the construction industry while developing a well-rounded professional construction manager.

Educational Objectives The following program educational objectives describe the expected accomplishments of graduates during the first several years following graduation from the CM program at MSOE. • Graduates of the BSCM program who choose to pursue certification as a Certified Professional Constructor (CPC), after attaining the required years of work experience stipulated by the American Institute of Constructors (AIC), achieve that distinction. • Graduates of the BSCM program who choose to pursue a graduate degree can achieve that distinction. • Graduates of the BSCM program will pursue opportunities to advance their professional skills through lifelong learning (e.g. graduates studies, conferences, seminars, etc.). • Graduates of the BSCM program will demonstrate a commitment to their profession by participating in one or more professional societies. • Graduates of the BSCM program will demonstrate, in their professional practices, an appreciation for sustainable construction.

Learning Outcomes The following learning outcomes describe what students are expected to know or be able to do by the time they graduate from MSOE. BSCM graduates will be: • Able to communicate effectively, both orally and in writing. • Able to work effectively in a team environment. 73

• Knowledgeable of the responsibilities, both professional and ethical, that are required of a construction manager. • Knowledgeable of the need for lifelong learning and have the motivation to pursue it. • Knowledgeable in the humanities and social sciences and of contemporary issues necessary to understand the global, societal and environmental impact of the construction manager. • Proficient in the business management areas listed below: • Economics • Principles of management • Accounting • Business law • Proficient in the mathematics and science areas listed below: • Mathematics: calculus I and II, probability and statistics • Analytical physical science: general physics and general chemistry •. Proficient in the construction sciences areas listed below: • Design theory • Analysis of design of construction systems • Construction graphics • Construction surveying • Construction methods and materials • Proficient in the construction areas listed below: • Estimating • Planning and scheduling • Construction accounting and finance • Construction law • Safety • Project management The objectives and outcomes are achieved by quality control processes that: • ensure adherence to the program accreditation criteria prescribed by the American Council for Construction Education (ACCE). • ensure continuous program improvement, especially • by routinely exchanging ideas and observations with the BSCM Industry Advisory Council. • by carefully analyzing program assignment and examination results, as well as other student instructional feedback. • are complementary with the BSAE program.

Some Common Positions

Construction Cost Estimator – An estimator applies knowledge of construction materials and processes and their costs to forecast the funds required to erect a building. Estimators mentally picture the work and interact with other members of the project team to determine probable costs. Estimates are required at various stages of building design – from early conceptual estimates to help the owner determine if the project is affordable, to detailed cost estimates for competitive bids after the project is designed. Construction Scheduler – A scheduler typically works on larger projects, applying knowledge of construction methods and processes to help plan project activity sequences and to efficiently schedule the work, in order to meet required project completion deadlines. Completing a project on time is the single most important factor for its success, and the scheduler ensures that members of the project team have the information they require to make this happen.

Construction Management

Construction Project Manager – The construction project manager (PM) has overall responsibility and authority to direct and coordinate actions that deliver the project to the client on time, under budget, and with required safety and quality. The PM might be associated with the project as soon as the client conceives the project and until the building is turned over to the owner for its intended use. Construction PMs can be likened to entrepreneurs with full accountability for all project activities.

Construction Information Systems Manager – A construction information systems manager links advanced hardware and software technologies with construction project actions and processes to keep their companies viable. To remain competitive, modern construction firms must leverage the productivity and decision-making benefits of information automation. Information systems are indispensable for efficient knowledge management, an essential function for any construction industry company that seeks a sustainable competitive advantage. Mastering the latest technical and construction project management skills, graduates of the five-year dual-degree CMIS option deliver exceptional value to construction industry firms at the technological frontier. Construction Superintendent – The construction superintendent is the contractor’s representative at the construction site. The superintendent directs and coordinates the site activities, which include the building trades. Responsibilities include ensuring that the work progresses according to the schedule and construction documents, material and equipment are delivered to the site on time and the various trade activities are not in conflict with one another. Facilities Manager – One of the many responsibilities of a facilities manager is being the owner’s representative in the building construction process. This responsibility may include formulating the building program’s initial budget, seeking design construction services, monitoring the construction process and overseeing approval of all billings.

Field Engineer – A field engineer engages in the design of temporary structures, site planning and layout, cost estimating, planning and scheduling, management, materials procurement, equipment selection, cost control and quality management. Many construction professionals, including those without engineering degrees but with adequate formal technical and managerial education, begin their careers in positions carrying this or a similar title. The popular five-year AE/CM option practically provides knowledge and skills equivalent to those held by graduates of baccalaureate architectural engineering programs who later earn a master’s degree in construction project management. These graduates fully understand the technical and managerial details of both design and construction – a noteworthy capability, since design-build is an expanding construction contracting alternative. Although CM graduates typically seek to be certified professional constructors, the AE degree enables AE/CMs to also earn a Professional Engineer license. This may offer particularly great occupational flexibility for graduates, as well as exceptional value to their employers.

AE-100 AE-1312 EN-131 HU-100 MA-136

Introduction to Architectural Engineering and Construction Management Introduction to Building Information Modeling I Composition Contemporary Issues in the Humanities Calculus for Engineers I

AE-1301 CH-200 EN-132 MA-137

Architectural Engineering Graphics Chemistry I Technical Composition Calculus for Engineers II Elective (HU/SS)1

AE-1231 EN-241 MA-262 MS-221 PH-2010

Building Construction Materials Speech Probability and Statistics Microeconomics Physics I - Mechanics TOTALS

2-2-3 1-2-1 3-0-3 3-0-3 4-0-4 1-2-1 3-2-4 3-0-3 4-0-4 3-0-3 3-2-4 2-2-3 3-0-3 3-0-3 3-3-4 13-4-14

14-4-15

14-7-17

Construction Management

FRESHMAN YEAR

BACHELOR OF SCIENCE CONSTRUCTION MANAGEMENT Model Full-time Track - V5.2 ------------QUARTER-----------1 2 3

Total Freshman Year Credits: 46

SOPHOMORE YEAR AE-200 AE-2212 GE-205 MS-354

Statics Building Construction Methods Professional Growth Principles of Accounting Elective (HU/SS)1

AE-2011 AE-2121 AE-225 MS-356

Mechanics of Materials I Fundamentals of Thermodynamics Specifications and Contracts Business Finance Elective (HU/SS)1

AE-2012 AE-213 CM-224 EE-2503 MS-322

Mechanics of Materials II Introduction to Fluid Mechanics Construction Estimating I Linear Circuit Analysis Macroeconomics TOTALS

4-0-4 2-2-3 1-0-0 3-0-3 3-0-3 3-0-3 4-0-4 3-0-3 3-0-3 3-0-3 3-0-3 4-0-4 3-0-3 3-0-3 3-0-3 13-2-13

16-0-16

Total Sophomore Year Credits: 45 1

There are 15 credits of humanities and social science (HU/SS) electives, of which 6 must be in the humanities area (HU) and 6 must be in the social sciences area (SS).

JUNIOR YEAR AE-3612 AE-3112 CM-212 GE-305 SS-461

Principles of Electrical Systems Design Heat Transfer and Basic Principles of HVAC Surveying Professional Growth Organizational Psychology Elective (Management Systems)2

AE-3021 CM-312

Principles of Structural Steel and Concrete Design Advanced Building Construction Methods and Site Engineering Issues Business and Construction Law Construction Estimating II Management Principles

CM-3022 CM-325 MS-342 AE-3311 CM-3181 CM-3417 CM-3210 CM-3161 CM-3013

------------QUARTER-----------7 8 9 4-0-4 4-0-4 2-3-3 1-0-0 3-0-3 3-0-3 4-0-4 3-0-3 3-0-3 3-2-4 3-0-3

Introduction to Building Information Modeling II Building Environmental and Mechanical Systems for CM Construction Equipment Management Construction Scheduling Building Electrical and Communication Systems for CM Construction Project Financial and Cost Control TOTALS

1-2-1 3-0-3 3-0-3 3-2-4 3-0-3 3-0-3 17-3-17

16-2-17

16-4-17

Total Junior Year Credits: 51

SENIOR YEAR AE-4311 AE-4412 CM-4712 CM-4311 CM-4511 EN-441 GE-405 AE-4121 CM-4321 CM-4721

AE-3321 CM-4731 CM-4002 HU-432

Architectural Design Engineering and Building Investment Economics Architectural Engineering and Construction Management Design-Build Senior Project I Construction Project Management I Construction Safety Management Professional Presentation Techniques Professional Growth

2-2-3 4-0-4 1-2-2 3-2-4 2-0-2 2-2-3 1-0-0

Environmental Science in Building Construction Construction Project Management II Architectural Engineering and Construction Management Design-Build Senior Project II Elective (Management Systems2 Elective (HU/SS)1

3-0-3 2-2-3 1-3-3 3-0-3 3-0-3

Architectural History Architectural Engineering and Construction Management Design-Build Senior Project III Sustainable Design and Construction Ethics for Professional Managers and Engineers Elective (HU/SS)1 TOTALS

3-0-3 1-3-4 3-0-3 3-0-3 3-0-3 15-8-18

12-5-15

13-3-16

Total Senior Year Credits: 49 Total Program Credits: 191 1

There are 15 credits of humanities and social science (HU/SS) electives, of which 6 must be in the humanities area (HU) and 6 must be in the social sciences area (SS).

The MS Elective shall be chosen from a list reviewed annually for suitability by the Directors, BSCM and BSM, and listed in the MSOE Undergraduate Academic Catalog with the CM program. The list of electives is also noted as a subtrack in this on-line program track, just click on the "paper" icon.

Students are required to take the AIC/CPC Level 1 Certified Professional Constructor Exam in their senior year. Accredited by the American Council for Construction Education (ACCE, 1717 N. Loop 1604E, Suite 320, San Antonio, TX 78232-1570; telephone: (210) 495-6161). 78

BACHELOR OF SCIENCE ARCHITECTURAL ENGINEERING and CONSTRUCTION MANAGEMENT Five-year Double Major for All Design Specialties Model Full-time Track - 4.2

AE-100 AE-1312 EN-131 HU-100 MA-136 MS-221

Introduction to Architectural Engineering and Construction Management Introduction to Building Information Modeling I Composition Contemporary Issues in the Humanities Calculus for Engineers I Microeconomics

AE-1301 MA-137 CH-200 EN-132

Architectural Engineering Graphics Calculus for Engineers II Chemistry I Technical Composition Elective (HU/SS)1

AE-1231 EN-241 MA-231 MS-322 PH-2010

Building Construction Materials Speech Calculus for Engineers III Macroeconomics Physics I - Mechanics TOTALS

2-2-3 1-2-1 3-0-3 3-0-3 4-0-4 3-0-3 1-2-1 4-0-4 3-2-4 3-0-3 3-0-3 3-2-4 2-2-3 4-0-4 3-0-3 3-3-4 16-4-17

14-4-15

15-7-18

Architectural Engineering and Construction Management

FIRST YEAR

------------QUARTER-----------1 2 3

Total First Year Credits: 50

SECOND YEAR AE-200 AE-2212 MA-235 CH-201 GE-205 MS-354

Statics Building Construction Methods Differential Equations for Engineers Chemistry II Professional Growth Principles of Accounting

AE-2011 AE-2121 MA-232 AE-225 PH-2020

Mechanics of Materials I Fundamentals of Thermodynamics Calculus for Engineers IV Specifications and Contracts Physics II - Electromagnetism and Optics

AE-2012 AE-213 CM-224 EE-2503 PH-2030

Mechanics of Materials II Introduction to Fluid Mechanics Construction Estimating I Linear Circuit Analysis Physics III - Thermodynamics and Quantum Physics TOTALS

4-0-4 2-2-3 4-0-4 3-2-4 1-0-0 3-0-3 3-0-3 4-0-4 3-0-3 3-0-3 3-3-4 3-0-3 4-0-4 3-0-3 3-0-3 3-3-4 17-4-18

16-3-17

Total Second Year Credits: 52 1

There are 15 credits of humanities and social science (HU/SS) electives, 6 of which must be in the humanities area (HU) and 6 must be in the social sciences area (SS).

THIRD YEAR

------------QUARTER-----------7 8 9

MA-262 AE-3011 AE-3112 AE-3612 GE-305

Probability and Statistics Principles of Structural Analysis Heat Transfer and Basic Principles of HVAC Principles of Electrical Systems Design Professional Growth Elective (Management Systems)2

AE-3021 AE-3121 AE-3621 CM-312

Principles of Structural Steel and Concrete Design Principles of Fire Protection and Plumbing Design Basic Principles of Illumination and Communications Advanced Building Construction Methods and Site Engineering Issues BSS: AE-3023 BMS: AE-3131 BEPS: AE-3631

CM-3161 CM-3417

AE-3311

3-0-3 3-0-3 4-0-4 4-0-4 1-0-0 3-0-3 4-0-4 4-0-4 4-0-4 3-0-3 3-2-4 3-2-4 3-2-4

Building Electrical and Communication Systems for CM Construction Equipment Management Design Specialty3 BSS: AE-303 and AE-304 BMS: AE-3132 and AE-3141 BEPS: AE-3641 and AE-3651 Introduction to Building Information Modeling II TOTALS BEPS and BSS: BMS:

3-0-3 3-0-3 7-2-8 6-4-8 7-2-8 1-2-1

18-0-17 18-0-17

18-2-19 18-2-19

14-4-15 13-6-15

Total Third Year Credits: 51

FOURTH YEAR AE-4311 AE-4712 AE-4412 EN-441 GE-405

AE-4721 CM-325 MS-342 MS-356

CM-3181 CM-3210 CM-3013 AE-4733 AE-4731

Architectural Design Architectural Engineering and Construction Management Design-Build Senior Project I Engineering and Building Investment Economics Professional Presentation Techniques Professional Growth Elective (HU/SS)1 Design Specialty3 BSS: AE-401 BMS: AE-411 BEPS: AE-463

1-2-2 4-0-4 2-2-3 1-0-0 3-0-3 3-2-4 3-2-4 3-2-4

Architectural Engineering and Construction Management Design-Build Senior Project II Construction Estimating II Management Principles Business Finance Elective (HU/SS)1 Design Specialty3 BSS: AE-407 BMS: AE-412 BEPS: AE-466

1-3-3 3-2-4 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3

Building Environmental and Mechanical Systems for CM Construction Scheduling Construction Project Financial and Cost Control AE Senior Project Working Drawings Architectural Engineering and Construction Management Design-Build Senior Project III

TOTALS Total Fourth Year Credits: 55 80

2-2-3

16-8-19

3-0-3 3-2-4 3-0-3 2-2-3 1-3-4 16-5-19

12-7-17

FIFTH YEAR CM-4511 CM-4311 CM-212 CM-4712

CM-3022 CM-4321 CM-4721 AE-4121

CM-4731 CM-4002 HU-432 AE-3321

2-0-2 3-2-4 2-3-3 1-2-2 3-0-3 3-0-3

Business and Construction Law Construction Project Management II Architectural Engineering and Construction Management Design-Build Senior Project II Environmental Science in Building Construction Elective (HU/SS)1 Elective (HU/SS)1

3-0-3 2-2-3 1-3-3 3-0-3 3-0-3 3-0-3

Architectural Engineering and Construction Management Design-Build Senior Project III Sustainable Design and Construction Ethics for Professional Managers and Engineers Architectural History Elective (Science)5 TOTALS

14-7-17

1-3-4 3-0-3 3-0-3 3-0-3 3-0-3 15-5-18

Architectural Engineering and Construction Management

SS-461

Construction Safety Management Construction Project Management I Surveying Architectural Engineering and Construction Management Design-Build Senior Project I Organizational Psychology Elective (Math)4

------------QUARTER-----------13 14 15

13-3-16

Total Fifth Year Credits: 51 Total Program: 259 credits 1

There are 15 credits of humanities and social science (HU/SS) electives, 6 of which must be in the humanities area (HU) and 6 must be in the social sciences area (SS).

MS Electives will be reviewed annually by the Directors of the BSCM and BSBM programs, and listed in the Undergraduate Academic Catalog, after the BSCM curriculum track. You can also access this list on-line by clicking on the "paper" icon next to the MS Elective.

All students must choose one of the three specialty sequences of classes beginning in the Winter Quarter of the junior year. (Building Structural Systems (BSS), Building Mechanical Systems (BMS), or Building Electrical Power Systems (BEPS)

Suggested Math Electives List: MA343, MA380, MA381, MA382, MA33, MA383, MA387.

5 These

3 credits must be taken from the science area. (SC, PH, CH)

Students in the Air Force ROTC program can make the following substitutions: AF300 for General Elective, AF301 for EN441, AF302 for AE440, AF401 for SS455 (and SS elective), AF402 for MS331. Students are required to take the AIC/CPC Level 1 Certified Professional Constructor Exam in the 5th year as a condition of graduation. Students are required to take the Fundamentals of Engineering (FE) exam in their 5th year, as a condition of graduation. The architectural engineering program is accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org. The construction management program is accredited by the American Council for Construction Education (ACCE, 1717 N. Loop 1604E, Suite 320, San Antonio, TX 78232-1570; telephone: (210) 495-6161).

MS Elective Courses for CM and AE/CM programs MS-3220 Sustainable Management and Economics MS-327 International Business MS-3330 Legal Aspects of Innovation and Entrepreneurship MS-3403 Managing for Quality MS-3411 Leading Project Teams MS-3420 International Management MS-344 Organizational Behavior and Leadership Development MS-358 Managerial Cost Accounting MS-3615 Services Marketing MS-361 Marketing MS-3991 Supply Chain Management MS-433 Small Business Management MS-439 Principles of Real Estate MS-441 Supervision MS-4411 Compensation System Design MS-442 Management in the Era of Rapid Technological Change MS-443 Labor Relations MS-444 Business and Government Relations MS-448 Employment Law MS-449 Human Resource Management MS-462 Technical Selling

Rader School of Business

Successful organizations search for business graduates who are prepared to face the challenges of a dynamic business environment within a global society. MSOE business graduates fill this need through a unique blend of technical and business courses that bring together a powerful mix of fundamental business concepts and practical applications.

Rader School of Business programs Undergraduate programs include: Bachelor of Science in Business Management Bachelor of Science in International Business Bachelor of Science in Management Information Systems Undergraduate degree concentrations are offered in each major. Concentrations are in the following topical areas: Computer Applications, Support and Development Computer Systems Infrastructure Engineering Studies Financial Management Health Care Management Management Information Systems Managerial Leadership Marketing and Entrepreneurship Operations Management

Rader School of Business

Main Office: Rosenberg Hall, 1235 N. Milwaukee St. Phone: (414) 277-7279 Fax: (414) 277-7479 Website: www.msoe.edu/business

Graduate programs include: Master of Science in Construction and Business Management Master of Science in Engineering Management Master of Science in Marketing and Export Management Master of Science in Medical Informatics (offered jointly with the Medical College of Wisconsin) Master of Science in New Product Management Certification and Professional Programs include: CompTIA Certifications in A+, Network+, Security+ Microsoft Certified IT Professional Project Management Certificate Website Design Certificate The faculty of the Rader School of Business is committed to the basic educational philosophy that includes an applications-oriented approach in all classes and laboratories, development of a strong foundation of business skills and knowledge for all students, and the integration of and exposure to the latest technologies and business practices in all of its programs. MSOE business programs are distinguishable from traditional business administration degrees in that MSOE students become well-versed in the technology that drives businesses. The Rader School of Business views technology as machines, systems and approaches that extend human capacity and performance. 83

Vision The Rader School of Business is the preferred path for building and enhancing business careers that are based on both technical expertise and practical business knowledge. Superior job placement, alumni satisfaction and accomplished faculty and staff are evidence of our success.

Mission The Rader School of Business continually strives to provide business education in areas that emphasize the understanding and application of current technology and the business practices essential for success in the 21st century. MSOEâ€™s Rader School of Business has offered courses in business and management since the mid-1950s. Today, the Rader School of Business serves nearly 250 undergraduate, more than 125 graduate and numerous certificate students each year.

Faculty: Chairman: Dr. Steven C. Bialek Department Secretary: Kimberly Benson Uihlein/Spitzer Chair of Entrepreneurship: G. Woodrow Adkins Professors: Dr. Jeffrey Blessing, Dr. Kathy Faggiani, Dr. Douglas L. Reed, Larry J. Schmedeman, Dr. Bruce R. Thompson Associate Professors: Dr. Steven C. Bialek, Dr. Paul A. Hudec, Carol S. Mannino, Dr. Carolyn Ottman Assistant Professors: Dr. Michael J. Payne, Dr. John Traxler Instructor: Mary Jo Suminski Adjunct Professors: G. Woodrow Adkins, Terry Hoffmann, Stanley Kosmatka, Dr. Kimbel Nap, Dr. Dennis Wanless Adjunct Associate Professors: Dr. Brian Akers, Robert Hankes, Thomas Jerger, Shajan John, Jerry Lieberthal, Dr. Kathleen Miezio, Dr. Alexandra Becker Sielaff, Michael J. Talbot Sr., Vairavan Vairavan, Dr. Raymond Zastrow Adjunct Assistant Professors: Dr. Kenneth Dobbs, Kenneth F. Mannino, Kim Pemble, Kim Pettiford, Dr. Jeffrey Santaga, Kristin Shebesta, David Schmitz Lecturers: Salvatore Agnello, Paul Churchill, Melinda M. Davies, Sue Hoerchner, Patricia Doyle Kramer, Cynthia Mand, Katie McCarthy, Dr. Jill Melchoir, Tyler M. Moore, Theresa Rosik-Guerts, Jeff Roznowski, Irene Strohbeen, Eric Weinberger, Dirk Wilken Professor Emeritus: Dr. George Lephardt 84

Bachelor of Science Business Management

The Bachelor of Science in Business Management prepares individuals to lead people, processes and technology. The program responds to businesses that need people who can use technology, work together creatively and think innovatively. The business management program capitalizes on MSOE’s long history of combining theory and practice, along with 50 years of experience providing technology-rich business education. Students learn core business concepts and put them into practice by solving today’s business problems in “real-world” project experiences. Specialized areas of study in the program include: engineering studies, financial management, health care management, managerial leadership, marketing and entrepreneurship and operations management.

Business Management

Program Director: Dr. Michael J. Payne Office: R-206 Phone: (414) 277-7279 Fax: (414) 277-7479 E-mail: paynemj@msoe.edu

Students entering the program from high school are accepted into the program starting freshman year. In addition to studying a range of business management subjects, the program requires students to participate in a professional internship. Students work at companies such as Apexx Marketing, Assurant Health, Aurora Health, Brady Corp., Direct Supply, Harley-Davidson, GE Healthcare, Johnson Controls, Metavante, Rockwell Automation and Stark Investments, to name a few. MSOE’s Rader School of Business is the difference in business education. Classes are small, which encourages interaction and networking. Professors bring business experience into the classroom, along with a passion for teaching. What is taught in the classroom can be applied immediately to the workplace. An uncompromising approach to quality provides a meaningful education that carries value well beyond graduation. Individuals with an MSOE degree are highly sought by employers around the world. The degree is available to traditional full-time undergraduate students, and flexible plans of study are also available for working professionals. For those with an associate degree, the transfer plan grants junior standing to qualified individuals. Courses in the program can be completed on a part-time or full-time basis. Classes may be taken during the day or evening, with several options for blended, Internet-hybrid study available each academic term.

Program Objectives Graduates of the business management program: • excel in leadership positions. • are recognized as experts in at least one business function and are knowledgeable about multiple functions of business. • possess superior technical skills and integrate technology to facilitate and improve business. • are effective communicators and exhibit strong interpersonal skills with particular appreciation for cultural diversity. • engage in life-long learning that enables them to continually improve business processes and practices.

Program Outcomes Upon completing the business management program, students: • have generalized skills in accounting with the ability to create, analyze and evaluate financial data and reports. • possess knowledge of economics and economic systems that lead to the application of economic models in problem-solving. • demonstrate managerial competence related to business process, organizational behavior and strategic business management. • apply the tools of quantitative business to effectively analyze and create solutions to business problems and opportunities. • understand information systems and have skills to use and integrate technological tools and systems to management and improve business. • have knowledge of business finance with the skills to make effective business choices. • are skilled at business marketing and have the capacity to create and implement strategic market approaches. • exhibit a commitment to moral, ethical, and social responsibility in their business management decisions. • demonstrate awareness and strategic thinking that reflects a global business perspective.

BACHELOR OF SCIENCE BUSINESS MANAGEMENT Model Traditional Full-time Track - V1.0 ------------QUARTER-----------FRESHMEN YEAR 1 2 3 EN-131 HU-100 MS-1010 MS-184

EN-132 MA-127 MS-280 MS-322 TC-151

Technical Composition College Algebra II Introduction to Management Information Systems Macroeconomics Theory of Human Communication

EN-241 MA-129 MS-273 MS-342 SS-460

Speech Introduction to Differential and Integral Calculus Web Site Design Management Principles Foundations of Psychology TOTALS

SOPHOMORE YEAR MS-2810 MS-354 TC-453 PH-130 MA-340 MS-356 MS-2420 CH-103 MS-331 MS-358 MS-361 TC-342

Introduction to Computer Programming Visual Basic Principles of Accounting Intercultural Communication Elective (HU/SS)2 Applications of Physics3

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-0 3-0-3 4-0-4 3-0-3 3-0-3 3-0-3 2-2-3 4-0-4 3-0-3 3-0-3 3-0-3 16-0-15

16-0-16

15-2-16

2-2-3 3-0-3 3-0-3 3-0-3 3-2-4

Business Statistics Business Finance Foundations of Enterprise Resource Planning Elective (HU/SS)2 Principles of Chemistry3

4-0-4 3-0-3 2-2-3 3-0-3 3-2-4

Business Law Managerial Cost Accounting Marketing Professional Presentation Techniques Elective (HU/SS)2 TOTALS

Business Management

MS-221 OR-100

Composition Contemporary Issues in the Humanities Introduction to Business Introduction to Computer Methods and Applications Microeconomics Freshman Orientation1

3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 14-4-16

15-4-17

14-2-15

JUNIOR YEAR

------------QUARTER-----------7 8 9

EN-432 MS-3425 MS-4599 SS-453 TC-433

Business Communications Entrepreneurship - An Overview Managerial Finance American Government Knowledge Management Elective (Concentration)4

MS-340 MS-3427 MS-365 MS-4801 SS-461

Production Management Entrepreneurial Business Plans Business-to-Business Marketing Project Management Organizational Psychology Elective (Concentration)4

MS-327 MS-344 MS-393 MS-498

International Business Organizational Behavior and Leadership Development Quantitative Management Techniques Management Internship Experience5 Elective (HU/SS)2 Elective (Concentration)4 TOTALS

SENIOR YEAR HU-432 MS-444 OR-402

Ethics for Professional Managers and Engineers Business and Government Relations Database Management Systems Professional Guidance Elective (Concentration)4 Elective (Concentration)4

MS-448 MS-485

Employment Law Telecommunications Elective (HU/SS)2 Elective (Concentration)4 Elective (Concentration)4

MS-446 MS-449

Business Strategy Capstone Human Resource Management Elective (HU/SS)2 Elective (Concentration)4 Elective (Concentration)4 TOTALS

3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 0-10-3 3-0-3 3-0-3

16-0-16

15-10-18

3-0-3 3-0-3 2-2-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 15-2-16

15-0-15

1 Transfer students who have completed 36 quarter or 24 semester credits will be waived from OR-100, but will be required to complete OR-301 Transfer Student Orientation. Students following the Model Full-time Track may be required to take classes during the evening or occasionally on weekends. 2 BSBM students must complete at least 6 credits of social science (SS) electives AND at least 12 credits of humanities (HU) electives. Electives are chosen in consultation with an advisor. 3 Students must complete a minimum of 8 natural science creditsThe specific course selection MUST be approved by the curriculum advisor. At least one course chosen must have a lab. Course noted in the track are recommended. Students with appropriate prerequisites may select alternative courses. 4 BSBM students must complete at least 27 concentration CREDITS. Concentration courses are chosen in consultation with an advisor. See the prescribed concentration course list for options. 5 Business Management Internship is not required for students who provide evidence of an experience appropriate to their professional development related to the BSBM program. One MS elective will be substituted with consent of advisor.

BACHELOR OF SCIENCE BUSINESS MANAGEMENT 2 + 2 OPTION1 Working Professionals Model Full-time Track - V2.0 YEAR ONE MA-127 MS-280

EN-432 MA-129 MS-2420 MS-356

Business Communications Business Calculus Foundations of Enterprise Resource Planning Business Finance

MA-340 MS-340 MS-358 TC-342

Business Statistics Production Management Managerial Cost Accounting Professional Presentation Techniques

HU-100 MS-342 MS-3425 MS-361 MS-393

Contemporary Issues in the Humanities Management Principles Entrepreneurship - An Overview Marketing Quantitative Management Techniques TOTALS

4-0-4 3-0-3 3-0-3 1-0-0 3-0-3 3-0-3 4-0-4 2-2-3 3-0-3 4-0-4 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 14-0-13

12-2-13

Business Management

MS-354 OR-301 SS-461

College Algebra II Introduction to Management Information Systems Principles of Accounting Transfer Student Orientation Organizational Psychology

------------QUARTER-----------FALL WINTER SPRING SUMMER

13-0-13

YEAR TWO HU-432 MS-3220 MS-3427 MS-4599 MS-3429 MS-344 MS-448 OR-402

Ethics for Professional Managers and Engineers Sustainability Management and Economics Entrepreneurial Business Plans Managerial Finance Elective (Concentration)2

------------QUARTER-----------FALL WINTER SPRING SUMMER 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3

Entrepreneurial Finance Organizational Behavior and Leadership Development Employment Law Professional Guidance Elective (Concentration)2 Elective (HU/SS)3

MS-365 MS-483

Business-to-Business Marketing Database Management Systems Elective (Concentration)2 Elective (HU/SS)3

MS-444 MS-446 MS-4801

Business and Government Relations Business Strategy Capstone Project Management Elective (HU/SS)3 TOTALS

1-0-1 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 13-0-13

14-0-14

11-2-12

12-0-12

1The

BSBM+2 is a degree completion program and requires an associate degree or 60 semester/90 quarter credits for admission. Previous study must include specific courses in: computer methods, microeconomics, macroeconomics, business law, college mathematics, two courses in natural sciences (one with lab), English composition, technical composition, speech and two courses in humanistic studies. Additional time for completion will be added to the BSBM if any of these requirements are missing.

BSBM+2 students must complete at least NINE concentration elective CREDITS. Concentration electives are chosen in consultation with an advisor. See the prescribed concentration course list for options.

BSBM+2 students must complete at least 9 credits of humanities or social science (HU/SS) electives. Combined with previous study, students must demonstrate a balance in the number of HU and SS designated courses completed. The specific number of HU or SS credits will be determined upon admission.

The two-year Model Track for Degree Completion provides for a schedule whereby students can attend classes two nights per week and occasionally on Saturdays. At least one "on-track" course is available via Internet-hybrid (IH) delivery. IH classes meet face-to-face three to four times per quarter, with additional instruction done via the Internet as electronic lectures, interactive discussion forums, and on-line case studies. On-track courses, offered as traditional faceto-face meetings, are offered so three courses can be scheduled by meeting two nights per week, generally Monday and Wednesday or Tuesday and Thursday. The number of weeks classes meet during the Summer Quarter may vary.

BACHELOR OF SCIENCE BUSINESS MANAGEMENT 2 + 2 OPTION1 Working Professionals Model Part-Time Track - V2.0

YEAR ONE

------------QUARTER-----------FALL WINTER SPRING SUMMER

Introduction to Management Information Systems

3-0-3

MS-354 OR-301

Principles of Accounting Transfer Student Orientation

3-0-3 1-0-0

MS-2420 MS-356

Foundations of Enterprise Resource Planning Business Finance

MS-340 MS-358

Production Management Managerial Cost Accounting

HU-100

Contemporary Issues in the Humanities Management Principles Entrepreneurship - An Overview

MS-342 MS-3425

TOTALS

2-2-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-1 7-0-6

5-2-6

6-0-6

7-0-7

Business Management

MS-280

YEAR TWO MA-127 MS-3427 MS-4599

College Algebra II Entrepreneurial Business Plans Managerial Finance

EN-432 MA-129 MS-3429

Business Communications Business Calculus Entrepreneurial Finance

MA-340 TC-342

Business Statistics Professional Presentation Techniques

MS-361 MS-393

Marketing Quantitative Management Techniques TOTALS

4-0-4 1-0-1 3-0-3 3-0-3 4-0-4 1-0-1 4-0-4 2-2-3 3-0-3 3-0-3 8-0-8

8-0-8

6-2-7

6-0-6

YEAR THREE MS-365 SS-461

Business-to-Business Marketing Organizational Psychology

MS-344

Organizational Behavior and Leadership Development Professional Guidance Elective (Concentration)2

OR-402 MS-444

Business and Government Relations Elective (Concentration)2

MS-4801

Project Management Elective (HU/SS)3 TOTALS

------------QUARTER-----------FALL WINTER SPRING SUMMER 3-0-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 6-0-6

7-0-7

6-0-6

YEAR FOUR HU-432 MS-3220

Ethics for Professional Managers and Engineers Sustainability Management and Economics

MS-448

Employment Law Elective (HU/SS)3

MS-483

Database Management Systems Elective (HU/SS)3

MS-446

Business Strategy Capstone Elective (Concentration)2 TOTALS

3-0-3 3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 3-0-3 6-0-6

6-0-6

5-2-6

6-0-6

1The

The two-year Model Track for Degree Completion provides for a schedule whereby students can attend classes two nights per week and occasionally on Saturdays. At least one "on-track" course is offered via Internet-hybrid (IH) delivery each quarter. IH classes meet face-to-face three to four times per quarter, with additional instruction done via the Internet as electronic lectures, interactive discussion forums, and on-line case studies. On-track courses, offered as traditional face-to-face meetings, are offered so three courses can be scheduled by meeting two nights per week, generally Monday and Wednesday or Tuesday and Thursday. The number of weeks classes meet during the Summer Quarter may vary.

Concentrations

Required Engineering Studies Courses ME-1601 Introduction to Engineering Design ME-255 Engineering Statics for Non-mechanical Engineers (or equivalent) ME-257 Strength of Materials for Non-mechanical Engineers (or equivalent) AE-2121 Fundamentals of Thermodynamics (or equivalent) EE-1910 Introduction to Embedded Systems Programming EE-201 Linear Networks: Steady-State Analysis (or equivalent) IE-3620 Ergonomics IE-382 Stochastic Processes IE-426 Materials and Manufacturing Processes

Business Management

Engineering Studies – Students study fundamental engineering concepts to build a solid understanding of engineering design. In addition, business course work develops comprehensive knowledge and skills in writing and evaluating business plans, project management including management of multiple projects, leadership and communications. Graduates are able to apply this knowledge to transform market needs into engineering terms and business plans and integrate engineering solutions into today’s business and social environment (not available to 2+2 transfer students).

Required Mathematics and Science Courses MA-136 Calculus for Engineers I MA-137 Calculus for Engineers II MA-262 Probability and Statistics PH-2010 Physics I – Mechanics

To qualify for an Engineering Studies Concentration, a student must complete nine required engineering courses and four mathematics/science courses listed above. A specific program plan is developed for students pursuing the engineering studies concentration. Students who qualify may have mathematics and science courses required for the concentration substituted for required business major courses (e.g., MA-262 Probability and Statistics may replace MA-340 Business Statistics). Note that additional time may be needed to complete all of the concentration requirements if students are missing any prerequisites. Financial Management – Students develop skills in traditional practice and computer applications in the areas of accounting, finance, budgeting and costing. Graduates are adept at leading the internal financial operations of business. Eighteen credits of elective course work, chosen from the list below, must be completed to satisfy this concentration. Remaining concentration elective credits in the BSBM may be chosen from any 300-400 “MS” or “TC” course. Elective courses MS-450 Management Control Systems MS-451 Personal Tax MS-452 Investment and Portfolio Analysis MS-453 Personal Investments MS-4544 Financial Management Policies MS-459 Intermediate Accounting MS-439 Principles of Real Estate MS-4411 Compensation System Design 93

Health Care Management – Students learn about the latest trends, new technologies and advanced techniques in the health and management fields. Leadership skills are developed that create the ability to solve management problems and achieve maximum results. Eighteen credits of elective course work, chosen from the list below, must be completed to satisfy this concentration. Remaining concentration elective credits in the BSBM may be chosen from any 300-400 “MS” or “TC” course. Elective courses MS-3010 Introduction to Health Care Industry MS-3030 Organizational Development in Health Care MS-3050 Health Care Budgeting and Financial Management MS-4030 Legal Aspects of Health Care Management MS-4040 Health Care Quality Systems and Improvement MS-4060 Marketing and Public Relations in Health Care MS-4080 Information Technology Systems in Health Care Managerial Leadership – Students develop a broad-based business understanding with study in accounting and finance, operations management, human resources and marketing. Graduates are adept at leading a wide-array of projects and responding to business opportunities. Required courses Eighteen credits of distributed course work must be completed to satisfy concentration electives in the BSBM program. Students must complete six credits from financial management, six credits from marketing and entrepreneurship, and six credits from operations management. Remaining concentration elective credits may be chosen from any 300-400 “MS” or “TC” course. Marketing and Entrepreneurship – Students develop skills in technical selling, promotional strategies, e-business marketing and business-to-business marketing. Graduates are adept at leading marketing projects and operations in technical environments. Eighteen credits of required course work must be completed to satisfy concentration electives in the BSBM program. Remaining concentration elective credits may be chosen from the recommended list below, or from any 300-400 “MS” or “TC” course. Elective courses MS-363 E-business Marketing Strategies MS-4601 International Marketing and Export Management MS-462 Technical Selling MS-467 Marketing Research MS-468 Promotion and Advertising Strategies MS-469 Advanced Marketing Strategies MS-3330 Legal Aspects of Innovation and Entrepreneurship MS-3423 Innovation and Business Markets MS-3615 Services Marketing MS-3680 Fundamentals of Multimedia Production for Business

Operations Management – Students develop skills in supply chain, quantitative management, advanced operations, project management, Lean, Six Sigma and quality. Graduates are adept at leading and improving business processes and operations. Eighteen credits of elective course work, chosen from the list below, must be completed to satisfy this concentration. Remaining concentration elective credits in the BSBM may be chosen from any 300-400 “MS” or “TC” course.

*Select operations management electives can be completed through MSOE’s Business Excellence Consortium.

Business Management

Elective courses MS-3220 Sustainability Management and Economics MS-3403 Managing for Quality MS-3401 Applied Operations Management: Lean Techniques* MS-3406 Applied Operations Management: Six Sigma Introduction* MS-3411 Leading Project Teams* MS-3420 International Management MS-3991 Supply Chain Management MS-443 Labor Relations MS-4411 Compensation System Design MS-3405 Advanced Operations Management MS-4401 Applied Operations Management: Lean Lead Certification* MS-4406 Applied Operations Management: Six Sigma Advanced*

Alternatives to the designated concentration courses are considered on a case-by-case basis under extraordinary circumstances.

Bachelor of Science International Business Program Director: Professor Larry J. Schmedeman Office: R-311 Phone: (414) 277-7359 Fax: (414) 277-7479 E-mail: schmedem@msoe.edu

Why Study International Business? The Bachelor of Science in International Business program is a four-year program of study built on the rich tradition of MSOE’s application-oriented philosophy and use of technology in its programs. It’s necessitated by the need to respond to the future competitive challenges of business and the expectation that business leaders should have a global perspective, work experience abroad and understand the challenges of doing business in multiple markets. The program provides a strong foundation for students in business and management, with the availability of a large number of elective courses for professional development in one of the following concentrations: • IT Systems • Marketing • Operations and Logistics A cornerstone of the international business program is the required one-year study abroad during the junior year. MSOE has an exchange agreement with Lübeck University of Applied Sciences, Lübeck, Germany, where students from Lübeck and MSOE take classes together for one year (certain academic requirements are applicable – see program director for details). The classes are taught in English with a year of German included in the curriculum. In addition to the formal study, students are able to travel and experience the cultural diversity and historic heritage of Europe. The program at Lübeck is designed with some flexibility for study. Students are required to take a core set of courses and in addition choose two of four study blocks to follow. Core courses • Language, culture, professional development and a humanities project Study block options • Business Methods – international finance, trade, business project and quantitative methods • Operations/Logistics – production management/logistics, technological investments, integrated systems and material handling • Information Systems – Web programming, systems analysis, SAP programming and database management • Business Management – international management, marketing, accounting and taxes, and economic policies

Upon successful completion of the junior year and completion of the senior year at MSOE, graduates are awarded two degrees: B.S. engineering and business management from Lübeck, and Bachelor of Science in International Business from MSOE.

Lübeck University of Applied Sciences The Lübeck University of Applied Sciences (FHL) has a long tradition that goes back as far as 1808 when the first Navigation School was founded. The highly respected Lübeck University of Applied Sciences has approximately 115 professors and 70 laboratories to provide its 3,000 students with an excellent educational experience. The university combines the availability of the latest equipment with a nationally recognized level of expertise, providing students with a quality education and excellent professional opportunities following graduation.

Lübeck, Germany

International Business

Founded in A.D. 1134, Hansestadt Lübeck is among the few European cities whose Middle Ages appearance is still intact. In 1987, a portion of the old part of town was declared a UNESCO World Heritage Site and was included in the list of the cultural and natural heritage of the world. Located in the German state of Schleswig-Holstein on the Baltic Sea, this city of approximately 210,000 offers a variety of attractive cultural and recreational opportunities, especially for young people. Considered the “Cultural Capital of the North,” Lübeck offers a lively art scene with the Engelswisch Art Centre, Overbeck-Gesellschaft and Kunsthaus, and gallery of Metta Linde. Lübeck is the main venue for the world-famous SchleswigHolstein Music Festival, and its Northern Film Days turn Lübeck into the film capital of northern Europe. The adjacent Baltic resort of Travemünde offers beaches and night life.

Program Objectives The Bachelor of Science in International Business program seeks to produce graduates who are: • recognized for their ability to integrate business technologies into business processes. • in positions of responsibility and leadership within a global business environment. • are committed to professional growth and lifelong learning.

Program Outcomes Through an integrated array of courses and application of skills, graduates will: • attain a body of knowledge in business and management (economics, marketing, accounting, management sciences and finance). • demonstrate expertise in one or more areas ranging from information technology, marketing, or operations and logistics. • understand the theory and demonstrate practical application of business and management tools for problem solving. • demonstrate the ability to communicate skillfully in written, verbal and other forms across a diverse set of situations and cultures. • apply ethical and socially responsible reasoning in professional and managerial roles.

BACHELOR OF SCIENCE INTERNATIONAL BUSINESS Model Full-time Track - V2.6

FRESHMAN YEAR MS-1010 MS-184 MS-280 EN-131 OR-100

Introduction to Business Introduction to Computer Methods and Applications Introduction to Management Information Systems Composition Freshman Orientation1 Elective (Science for Business Students)2

MS-221 MS-273 EN-132 MA-127

Microeconomics Web Site Design Technical Composition College Algebra II Elective (Science for Business Students)2

MS-322 EN-241 MS-361 MA-129 HU-100

Macroeconomics Speech Marketing Introduction to Differential and Integral Calculus Contemporary Issues in the Humanities TOTALS

SOPHOMORE YEAR MS-2810 MS-354 TC-453

Introduction to Computer Programming Visual Basic3 Principles of Accounting Intercultural Communication Elective (Free)4 Elective (Concentration)

MS-356 MS-4801 MA-340 SS-455

Business Finance Project Management Business Statistics International Relations Elective (Concentration)

MS-327 MS-3420 MS-358 MS-485

International Business International Management Managerial Cost Accounting Telecommunications Elective (Free) Elective (Concentration) TOTALS

------------QUARTER-----------1 2 3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-0 3-2-4 3-0-3 3-0-3 3-0-3 4-0-4 3-2-4 3-0-3 2-2-3 3-0-3 4-0-4 3-0-3 16-2-16

16-2-17

15-2-16

2-2-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 4-0-4 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 14-2-15

16-0-16

18-0-18

JUNIOR YEAR

------------QUARTER-----------7 8 9

Courses at the L端beck University of Applied Sciences5 Elective (Concentration)6 Elective (Concentration)6 Elective (Concentration)6 Elective (Concentration)6 German Language (FHL) Professional Development (FHL)

4-0-4 4-0-4 4-0-4 4-0-4 4-0-4 2-2-3

TOTALS

SENIOR YEAR MS-331 MS-3425 MS-4601 MS-483 OR-402

Business Law Entrepreneurship - An Overview International Marketing and Export Management Database Management Systems Professional Guidance Elective (Concentration) Elective (Concentration)

MS-3411 MS-3427 MS-448

Leading Project Teams Entrepreneurial Business Plans Employment Law Elective (Concentration) Elective (Concentration)

HU-432 MS-446 SS-461

Ethics for Professional Managers and Engineers Business Strategy Capstone Organizational Psychology Elective (Concentration) Elective (Concentration) TOTALS

4-0-4 4-0-4 4-0-4 4-0-4 4-0-4 2-2-3 22-2-23

22-2-23

3-0-3 1-0-1 3-0-3 2-2-3 1-0-1 3-0-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 16-2-17

13-0-13

15-0-15

Transfer students who have completed 36 quarter or 24 semester credits will be waived from OR-100, but will be required to complete OR-301 Transfer Student Orientation.

All students must take a minimum of 8 natural science credits. The specific course selection MUST be approved by the curriculum advisor. At least one course chosen must have a lab.

3 MS-3812 4

International Business

Elective (Concentration)6 Elective (Concentration)6 Elective (Concentration)6 Elective (Concentration)6 German Language (FHL) Contrastive German-American Culture and Project (FHL)

C++ Programming for Business or MS-382 Introduction to Java Programming may be substituted in quarter 4.

The recommendation in term 4 is to take a German language course.

5 Consult

the program director on eligibility requirements for the study abroad program. Upon successful completion of the curriculum at FHL and graduation from MSOE, the degree, Diplom-Wirtschaftsingenieur will be awarded.

Electives chosen at FHL may result in course substitutions in the senior year. Students are expected to choose TWO of the following concentration tracks: Concentration Track A - Operations/Logistics; Concentration Track B - Information Systems; Concentration Track C - Business Methods; Concentration Track D - Business Management. Four concentration courses are required each semester at FHL two courses from each of the chosen tracks.

Bachelor of Science in International Business Concentration Electives V2.6 There are nine concentration electives in the IB program at MSOE designed for professional development within at least one area of specialization, from Marketing, Operations Management/Logistic, and Information Technology. Seven electives should be chosen from the approved list of courses below. The remainder may be selected from courses within the Rader School of Business or by consent of the program director if the course is outside the Rader School of Business and major studies. When selecting a course, please make note of prerequisite requirements. Marketing and Entrepreneurship MS-275 Advanced Design for Websites MS-277 Multimedia for Web Design MS-363 E-business Marketing Strategies MS-365 Business to Business Marketing MS-395 E-business Technologies MS-462 Technical Selling MS-467 Marketing Research MS-468 Advertising and Promotion Strategies MS-469 Advanced Marketing Strategies MS-4831 Advanced Database Management Systems MS-498 Management Internship Experience TC-172 TC-242 TC-332 TC-342 TC-381 TC-451

Desktop Publishing Persuasive Speech Advanced Technical Writing Professional Presentation Techniques Marketing Communications Mass Communication

Operations Management/Logistics There are fewer requirements to complete the operations concentration if the electives taken in Germany emphasized operations and supply chain management. (Please consult with your advisor.)

100

MS-2420 MS-3405 MS-3401 MS-3403 MS-3406 MS-3991 MS-4411 MS-443 MS-498

Introduction to Enterprise Resource Planning Advanced Operations Management Lean Techniques Managing for Quality Applied Operations Management Six Sigma Supply Chain Management Compensation Systems Design Labor Relations Management Internship Experience

IE-331 IE-336 IE-347 IE-3770 IE-381 IE-382 IE-423

Production Planning and Inventory Control Contemporary Integrated Manufacturing Systems Facilities Design Computer Integrated Manufacturing Deterministic Modeling and Optimization Stochastic Processes Engineering Economy

IT Systems Advanced Design for websites Multimedia for Web Design

MS-300 MS-387 MS-388 MS-389 MS-389 MS-4831

Principles of Operating Systems Computer Systems Analysis and Design I Computer Systems Analysis and Design II Data Center Management E-business Technologies Advanced Database Management Systems - SQL

MS-419 MS-4203 MS-4212 MS-4222 MS-4232 MS-4781

CompTIA A+ Microsoft Windows 7 Microsoft Windows Server Administrator Microsoft Windows Server Active Directory Microsoft Windows Server Network Infrastructure Administration Cisco Certified Network Associate

MS-479 MS-4795

CompTIA Network + CompTIA Security+

MS-2771 MS-2775 MS-2777 MS-371 MS-373 MS-3803 MS-3804 MS-3805 MS-3806 MS-3812 MS-3832 MS-480 MS-481 MS-482

Object Oriented Programming for the Web Servlets for the Web Web JavaServer Pages Introduction to Unix Operating System Advanced Unix and System Administration Intermediate Java Programming Advanced Java Programming Introduction to Enterprise Java Programming Intermediate Enterprise Java Programming C++ Programming for Business Advanced C++ Programming for Business XML/XSL Programming Introduction to C# Active Server Pages (ASP.NET)

MS-498

Management Internship Experience

International Business

MS-275 MS-277

Alternatives to the designated concentration courses are considered on a case-by-case basis under extraordinary circumstances.

101

BACHELOR OF SCIENCE INTERNATIONAL BUSINESS ISW1 Model Full-time Track - V1.1 The Bachelor of Science in International Business program includes a student exchange with the L端beck University of Applied Sciences. Students from Germany participating in the Internationale Studium Wirtschaftsingenieurwesen (ISW) program at their home university, attend MSOE during the final year of their studies. In addition to completing the course work outlined in the curriculum track below, German students have the opportunity to engage in a business-sponsored project to satisfy their diploma thesis requirements. After successfully completing their requirements at MSOE, German students are awarded the Bachelor of Science in International Business from MSOE and their degree from the L端beck University of Applied Sciences.

FOURTH YEAR AT MSOE MS-3425 MS-365 MS-4801 HU-432 SS-461

Entrepreneurship - An Overview Business-to-Business Marketing Project Management Ethics for Professional Managers and Engineers Organizational Psychology Elective (Concentration)

MS-3401

Applied Operations Management: Lean Techniques Leading Project Teams Entrepreneurial Business Plans Elective (SS) Elective (Concentration) Elective (Concentration)

MS-3411 MS-3427

MS-4951 MS-4953

------------QUARTER-----------1 2 3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3

German Practicum German Colloquium TOTALS

9-0-9 3-0-3 16-0-16

16-0-16

12-0-12

1German students coming from FHL follow this track while at MSOE. Upon successful completion of the curriculum at FHL and MSOE, the international business degree will be awarded.

102

Bachelor of Science Management Information Systems Program Director: Dr. Jeffrey Blessing Office: R-305 Phone: (414) 277-7194 Fax: (414) 277-7479 E-mail: blessing@msoe.edu

The program provides the opportunity for students to focus their studies by selecting course work in one of the following concentrations: Computer Systems and Networking – networking, systems analysis, systems design, operating systems and security; and Software Systems Development – advanced computer programming, Internet and World Wide Web applications, business process analysis, software integration and implementation, database development and information technology product management.

Program Objectives and Outcomes

Management Information Systems

The Bachelor of Science in Management Information Systems (MIS) program provides students with a combination of business, management and information technology preparation needed to succeed in today’s dynamic business environment. The program offers a comprehensive view that takes students through all of the core technologies and languages of computing. The student will learn by doing the very things that industry demands of its developers. Our laptop program for full-time students makes the resources that they need available on a 24-hour basis. Our commitment to using open source software ensures that parttime students will also have ready access to the tools they need to be successful.

The goal of the program is to produce graduates who: • are prepared to excel in positions of responsibility and leadership in the computer-oriented, information and technology-based organizations of the future. • have a solid grounding in humanistic studies, an appreciation for cultural diversity and skills to work effectively with people. • possess the skills to achieve competitive advantage for business and service organizations through making effective and efficient use of information technology. • have a propensity to be lifelong learners, to track new information technology and assist in incorporating it into an organization’s strategic, planning and operational practices.

103

Through an integrated array of courses and application of technologies, graduates of the program: • understand and can apply the methodology and tools of quantitative analysis, and a systems approach to the application of knowledge and decision-making. • are prepared to lead business and industry in a global information and communication-dominated economy. • possess technical and managerial skills and capabilities in the gathering, analysis and communication of critical business information. • are able to integrate technology to maintain and improve productivity, enhance the quality of work life, and advance technically oriented products, services and information. The degree is available to traditional full-time undergraduate students, and flexible plans of study are also available for working professionals. For those with an associate degree, the transfer plan grants junior standing to qualified individuals. Courses in the program can be completed on a part-time or full-time basis. Classes may be taken during the day or evening, with several options for blended, Internet-hybrid study available each academic term.

104

BACHELOR OF SCIENCE MANAGEMENT INFORMATION SYSTEMS Traditional Full-time Track - V2.4 ------------QUARTER-----------FRESHMAN YEAR MS-1010 MS-184

MS-280 EN-131 OR-100 HU-100 MS-221 EN-132 MA-127

Contemporary Issues in the Humanities Microeconomics Technical Composition College Algebra II Elective (Science for Business Students)2

MS-273 MS-322 EN-241 MA-129 SS-460

Web Site Design Macroeconomics Speech Introduction to Differential and Integral Calculus Foundations of Psychology TOTALS

SOPHOMORE YEAR MS-331 MS-354 MS-361 MS-382

Business Law Principles of Accounting Marketing Introduction to Java Programming Elective (HU/SS)3

MS-356 MS-3803 MS-4202 MA-340

Business Finance Intermediate Java Programming Microsoft Windows Vista Business Statistics Elective (HU/SS)3

MS-327 MS-342 MS-358 TC-342

International Business Management Principles Managerial Cost Accounting Professional Presentation Techniques Elective (Concentration)4 Elective (HU/SS)5 TOTALS

3-0-3 3-0-3

3-0-3 3-0-3 1-0-0 3-2-4 3-0-3 3-0-3 3-0-3 4-0-4 3-2-4 3-0-3 3-0-3 2-2-3 4-0-4 3-0-3 16-2-16

16-2-17

15-2-16

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-2-4 4-0-4 3-0-3

Management Information Systems

Introduction to Business Introduction to Computer Methods and Applications Introduction to Management Information Systems Composition Freshman Orientation1 Elective (Science for Business Students)2

3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 15-0-15

16-2-17

17-2-18

105

JUNIOR YEAR MS-3425 MS-371 MS-467 MS-483

Entrepreneurship - An Overview Introduction to Unix Operating Systems Marketing Research Database Management Systems Elective (Concentration)4 Elective (HU/SS)3

MS-3427 MS-373 MS-387 MS-4599 SS-461

Entrepreneurial Business Plans Advanced Unix and System Administration Computer Systems Analysis and Design I Managerial Finance Organizational Psychology Elective (Concentration)4

MS-3429 MS-395 MS-448 MS-485 MS-498

Entrepreneurial Finance E-business Technologies Employment Law Telecommunications Management Internship Experience6 Elective (Concentration)4 TOTALS

SENIOR YEAR MS-300 MS-3812 HU-432 OR-402

Principles of Operating Systems C++ Programming for Business Ethics for Professional Managers and Engineers Professional Guidance Elective (Concentration)4 Elective (HU/SS)5

MS-3832 MS-4801 EN-432

Advanced C++ Programming for Business Project Management Business Communications Elective (Concentration)4 Elective (HU/SS)5

MS-444 MS-446

Business and Government Relations Business Strategy Capstone Elective (Concentration)4 Elective (Concentration)4 Elective (HU/SS)3 TOTALS

------------QUARTER-----------7 8 9 1-0-1 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 0-10-3 3-0-3 15-2-16

16-0-16

13-10-16

3-0-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 16-0-16

15-0-15

1 Transfer

students who have completed 36 quarter or 24 semester credits will be waived from OR-100, but will be required to complete OR-301 Transfer Student Orientation. Students following the Model Full-time Track may be required to take classes during the evening or occasionally on weekends.

2 Students

must complete a minimum of 8 natural science credits. The specific course selection MUST be approved by the curriculum advisor. At least one course chosen must have a lab.

3 MIS

students must complete at least 9 credits of social science (SS) electives. Electives are chosen in consultation with an advisor.

4 MIS

students must complete at least 24 concentration credits. Concentration courses are chosen in consultation with an advisor. See the prescribed concentration course list for options.

5 MIS

students must complete at least 12 credits of humanities electives in addition to the prescribed requirements of HU-100 and HU-432. Electives are chosen in consultation with an advisor.

6 Management

Internship Experience is not required for students who can show evidence of an internship experience appropriate to their professional development related to the MIS program. One MS elective will be substituted with consent of advisor.

106

BACHELOR OF SCIENCE MANAGEMENT INFORMATION SYSTEMS 2+2 OPTION1 Model Working Professional Full-time Track - V2.0 ------------QUARTER-----------YEAR ONE 1 2 3 4 College Algebra II Principles of Accounting Introduction to Java Programming Transfer Student Orientation Organizational Psychology

EN-432 MA-129 MS-356 MS-3803

Business Communications Business Calculus Business Finance Intermediate Java Programming

MA-340 MS-358 MS-4203 TC-342

Business Statistics Managerial Cost Accounting Mircrosoft Windows 7 Configuration Professional Presentation Techniques

HU-100 MS-342 MS-3425 MS-361 MS-395

Contemporary Issues in the Humanities Management Principles Entrepreneurship - An Overview Marketing E-business Technologies TOTALS

YEAR TWO HU-432 MS-300 MS-3427 MS-4599 MS-467

Ethics for Professional Managers and Engineers Principles of Operating Systems Entrepreneurial Business Plans Managerial Finance Marketing Research

MS-3429 MS-371 MS-448 OR-402

Entrepreneurial Finance Introduction to Unix Operating Systems Employment Law Professional Guidance Elective (Concentration)2 Elective (HU/SS)3

MS-373 MS-483

Advanced Unix and System Administration Database Management Systems Elective (Concentration)2 Elective (HU/SS)3

MS-327 MS-444 MS-446

International Business Business and Government Relations Business Strategy Capstone Elective (HU/SS)3 TOTALS

4-0-4 3-0-3 3-0-3 1-0-0 3-0-3 3-0-3 4-0-4 3-0-3 3-0-3 4-0-4 3-0-3 3-2-3 2-2-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 14-0-13

13-0-13

12-4-13

13-0-13

3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3

Management Information Systems

MA-127 MS-354 MS-382 OR-301 SS-461

3-0-3 2-2-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 13-0-13

14-0-14

11-2-12

12-0-12

1The

BSMIS+2 is a degree completion program and requires an associate degree in computer or information systems or 60 semester/90 quarter credits of computer or information course work for admission. Previous study must include specific courses in: computer methods, microeconomics, macroeconomics, business law, college mathematics, two courses in natural sciences (one with lab), English composition, technical composition, speech, and two courses in humanistic studies. Additional time for completion will be added to the BSMIS+2 if any of these requirements are missing.

BSMIS+2 students must complete at least six concentration elective CREDITS. Concentration electives are chosen in consultation with an advisor. See the prescribed concentration course list for options.

BSMIS+2 students must complete least 9 credits of humanities and social science (HU/SS) electives. Combined with previous study, students must demonstrate a balance in the number of HU and SS designated courses completed. The specific number of HU or SS credits will be determined upon admission.

The two-year model track for degree completion provides for a schedule whereby students can attend classes two nights per week and occasionally on Saturdays. At least one "on-track" course is offered via Internet-hybrid (IH) delivery each quarter. IH classes meet face-to-face three to four times per quarter, with additional instruction done via the Internet as electronic lectures, interactive discussion forums, and on-line case studies. On-track courses, offered as traditional faceto-face meetings, are offered so three courses can be scheduled by meeting two nights per week, generally Monday and Wednesday, or Tuesday and Thursday. The number of weeks classes meet during the Summer Quarter may vary. 107

BACHELOR OF SCIENCE MANAGEMENT INFORMATION SYSTEMS 2+2 OPTION1 Model Working Professional Part-time Track - V2.0 ------------QUARTER-----------YEAR ONE MS-354 MS-382 OR-301

Principles of Accounting Introduction to Java Programming Transfer Student Orientation

MS-356 MS-3803

Business Finance Intermediate Java Programming

MS-358 MS-4203

Managerial Cost Accounting Mircrosoft Windows 7 Configuration

HU-100 MS-342

Contemporary Issues in the Humanities Management Principles TOTALS

YEAR TWO MA-127 MS-4599

College Algebra II Managerial Finance

EN-432 MA-129

Business Communications Business Calculus

MA-340 MS-483

Business Statistics Database Management Systems

MS-3425 MS-361 MS-395

Entrepreneurship - An Overview Marketing e-business Technologies TOTALS

YEAR THREE MS-300 MS-3427 SS-461

Principles of Operating Systems Entrepreneurial Business Plans Organizational Psychology

MS-3429 MS-371 OR-402

Entrepreneurial Finance Introduction to Unix Operating Systems Professional Guidance Elective (Concentration)2

MS-373 TC-342

Advanced Unix and System Administration Professional Presentation Techniques

MS-327

International Business Elective (HU/SS)3 TOTALS

108

3-0-3 3-0-3 1-0-0 3-0-3 3-0-3 3-0-3 3-2-3 3-0-3 3-0-3 7-0-6

6-0-6

6-2-6

6-0-6

4-0-4 3-0-3 3-0-3 4-0-4 4-0-4 2-2-3 1-0-1 3-0-3 3-0-3 7-0-7

7-0-7

6-2-7

7-0-7

3-0-3 1-0-1 3-0-3 1-0-1 3-0-3 1-0-1 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 7-0-7

8-0-8

5-2-6

6-0-6

YEAR FOUR HU-432 MS-467

Ethics for Professional Managers and Engineers Marketing Research

MS-448

Employment Law Elective (HU/SS)3

3-0-3 3-0-3

Business and Government Relations Business Strategy Capstone TOTALS

3-0-3 3-0-3

Elective (Concentration)2 Elective (HU/SS)3 MS-444 MS-446

3-0-3 3-0-3

3-0-3 3-0-3 6-0-6

6-0-6

BSMIS+2 students must complete 9 credits of humanities or social science (HU/SS) electives. Combined with previous study, students must demonstrate a balance in the number of HU and SS designated courses completed. The specific number of HU or SS credits will be determined upon admission.

The four-year model track for degree completion provides for a schedule whereby students can attend classes two nights per week and occasionally on Saturdays. At lest one "on-track" course is offered via internet-hybrid (IH) delivery each quarter. IH classes meet face-to-face three to four times per quarter, with additional instruction done via the Internet as electronic lectures, interactive discussion forums, and on-line case studies. On-track courses, offered as traditional face-to-face meetings, are offered so three courses can be scheduled by meeting two nights per week, generally Monday and Wednesday, or Tuesday and Thursday. The number of weeks classes meet during the Summer Quarter may vary.

Management Information Systems

1The

109

Bachelor of Science in Management Information Systems Concentration Electives Students following the full-time traditional MIS track are expected to complete 24 credits of concentration elective course work. At least SIX courses must be completed from one of the following concentration areas: Application Development and Support MS-221 Microeconomic MS-275 Advanced Website Design MS-277 Multimedia for Website Design MS-2815 Developing Business Solutions with C# MS-3804 Advanced Java Programming MS-3805 Introduction to Enterprise Java Programming MS-3806 Intermediate Enterprise Java Programming MS-3807 Advanced Enterprise Java Programming MS-480 XML/XSL Programming MS-481 C# Programming MS-482 Active Server Pages (ASP.NET) MS-4831 Advanced Database Management and SQL MS-486 Web Services MS-488 Wireless Programming Computer Systems Infrastructure MS-388 Computer Systems Analysis and Design II MS-389 Data Center Management MS-4080 Information Technology Systems in Health Care MS-419 CompTIA A+ MS-4212 Microsoft Windows Server 2008 Administrator MS-4222 Microsoft Windows Server 2008 Active Directory Configuration MS-4232 Microsoft Windows Server 2008 Network Infrastructure Configuration MS-4781 Cisco Certified Network Associate MS-479 CompTIA Network+ MS-4795 CompTIA Security+ *Alternatives to the listed courses are considered under extraordinary circumstances. Students should consult with the MIS Program Director when choosing elective courses.

110

Minors Offered by the Rader School of Business Advisor: Dr. Michael J. Payne Office: R-206 Phone: (414) 277-7279 Fax: (414) 277-7479 Email: paynemj@msoe.edu

Minor in Business Management The Minor in Business Management expands a student’s understanding of business and skills in management. The minor augments a student’s major and provides the background necessary for entrance into business related graduate programs.

Students in the BSBM, BSIB and BSMIS programs are not eligible to receive the Minor in Business Management. Required courses Students must complete 21 credits of required course work from the following. Substitutes to the prescribed list may be considered for select majors.

MS-221 MS-331 MS-340 MS-342 MS-354 MS-356 MS-361

Business Minors

At least 27 credits of “MS” course work are required for the minor. The Minor in Business Management requires taking courses above the minimum needed in a student’s major program. The advisor for the minor will establish a plan of study for each student. At least 50 percent of the minor requirements must be completed at MSOE.

Microeconomics -- or -- MS-2220 Foundations of Business Economics Business Law --or-- CM-3021 Business and Construction Law Production Management Management Principles Principles of Accounting Business Finance Marketing

Elective courses Students must complete six credits of elective course work from the following:

MS-322 MS-3401 MS-3403 MS-3411 MS-3420 MS-3423 MS-344 MS-358 MS-393 MS-3991 MS-439 MS-4411 MS-441 MS-442 MS-443 MS-444 MS-448 MS-449 MS-450 MS-4599

Macroeconomics Applied Operations Management: Lean Techniques Managing for Quality Leading Project Teams International Management Innovation and Business Markets Organizational Behavior and Leadership Development Managerial Cost Accounting Quantitative Management Techniques Supply Chain Management Principles of Real Estate Compensation System Design Supervision Management in the Era of Rapid Technological Change Labor Relations Business and Government Relations Employment Law Human Resource Management Management Control Systems Managerial Finance

111

Minor in Marketing and Entrepreneurship The Minor in Marketing and Entrepreneurship expands a student’s understanding of marketing, innovation and commercialization. The minor augments a student’s major and provides the background necessary for business development. At least 27 credits are required for the minor, distributed as 21 “MS” credits plus six elective credits. The Minor in Marketing and Entrepreneurship requires taking at least two courses (six credits) in addition to those defined in a student’s major program. If the major allows, one of these courses (three credits) can be used toward a program elective. The advisor for the minor will establish a plan of study for each student. At least 50 percent of the minor requirements must be completed at MSOE. Students in the BSBM, BSIB and BSMIS programs are not eligible to receive the Minor in Marketing and Entrepreneurship. Required courses Students must complete 21 credits of required course work from the following. MS-221 Microeconomics (or MS-2220 Foundations of Business Economics) MS-331 Business Law (or CM-3021 Business and Construction Law) MS-3423 Innovation and Business Markets --or-- all three of the following one credit courses: • MS-3425 Entrepreneurship–An Overview • MS-3427 Entrepreneurial Business Plans • MS-3429 Entrepreneurial Finance MS-361 Marketing MS-467 Marketing Research MS-468 Promotion and Advertising Strategies MS-469 Advanced Marketing Strategies Elective courses Students must complete six credits of elective course work from the following: HU-494 Creative Thinking MS-273 Website Design MS-327 International Business MS-3330 Legal Aspects of Innovation and Entrepreneurship MS-342 Management Principles MS-344 Organizational Behavior and Leadership Development MS-3615 Services Marketing MS-363 E-business Marketing Strategies MS-365 Business-to-Business Marketing MS-4601 International Marketing and Export Management MS-462 Technical Selling MS-4801 Project Management MS-483 Database Management Systems TC-242 Persuasive Speech TC-342 Professional Presentation Techniques TC-351 Organizational Communication

112

Certifications The following groups of certification courses are available for credit as technical electives in many degree programs. They are an integral part of the Bachelor of Science in Management Information Systems degree program. Students not pursuing a degree at MSOE may participate in the courses as nondegree students. MSOE is committed to updating the course curriculum on a continual basis to meet changing requirements. MSOE has partnered with Pearson Virtual University Enterprises (VUE) to offer certification testing on campus. Certification exams can be arranged and paid for by the student through MSOE’s VUE Testing Center.

MSOE’s Rader School of Business is proud to be part of the Microsoft IT Academy and offers Microsoft authorized training courses. As a Microsoft IT Academy provider, MSOE offers courses necessary to obtain the Microsoft Certified Technology Specialist (MCTS) and Microsoft Certified IT Professional (MCITP) certifications. Microsoft Certified Systems Engineer/Systems Administrator Track MS-4203 MS-4212 MS-4222 MS-4232

Microsoft Windows 7 Microsoft Windows Server Administrator Microsoft Windows Server Active Directory Microsoft Windows Server Network Infrastructure Administration

CompTIA Certifications MSOE’s Rader School of Business is proud to offer courses designed to prepare students for the Computing Technology Industry Association (CompTIA)sponsored CompTIA A+, CompTIA Network+ and CompTIA Security+ Certifications. The CompTIA A+ and CompTIA Network+ courses are entry-level courses that satisfy the prerequisites for advanced study in the Microsoft certification programs. CompTIA A+, CompTIA Network+, and CompTIA Security+ Certifications may be accepted by Microsoft as electives for the Microsoft Certified Technology Specialist (MCTS) and Microsoft Certified IT Professional (MCITP) certifications.

Business Management Certifications

Microsoft Certifications

MS-419 CompTIA A+ Certification MS-479 CompTIA Network+ Certification MS-4795 CompTIA Security+ Certification

113

Electrical Engineering and Computer Science Department Main Office: Walter Schroeder Library, L-350 Phone: Local: (414) 277-7323 Toll Free: (888) 333-6763 (EEE-MSOE) Fax: (414) 277-7465 Website: www.msoe.edu/eecs The Electrical Engineering and Computer Science (EECS) Department is the oldest and largest academic department at MSOE. The department supports 14 engineering laboratories, plus the EECS Technical Support Center. Undergraduate degree granting responsibility includes the areas of biomedical, computer, electrical and software engineering, and electrical engineering technology. The department offers graduate degree programs in engineering, cardiovascular studies and perfusion. Related certificate and special company programs also are offered. The Electrical Engineering and Computer Science Department at MSOE implements the mission of the university by providing competent and well-rounded graduates who function as productive participants and leaders in their selected disciplines. To this end, the Electrical Engineering and Computer Science Department will: • graduate biomedical, computer, software, and electrical engineers who have excellent design, analysis, and laboratory skills and are productive in industry doing design and development tasks in their areas of study, and are successful and recruited for graduate study by major universities. • graduate electrical engineering technologists who have strong laboratory and analysis skills, and who will be productive in industry supporting and performing design and development tasks in a variety of areas. • instill in its graduates a solid foundation in mathematics, science and engineering principles that will support current and future learning. • instill in its graduates the desire for lifelong learning and provide them with the appropriate tools for graduate education. • require of its graduates an understanding of professional and ethical responsibility in all personal and professional activities.

114

Faculty:

Electrical Engineering and Computer Science

Chairman: Dr. Owe Petersen Assistant to Chairman: Michael Oâ€™Donnell Department Secretaries: Amy Labiszak, Emily Vogel Professors: William Barnekow, Dr. Steven Barnicki, Dr. Frederick Berry, Dr. Edward W. Chandler, Dr. Larry Fennigkoh, Dr. John Gassert, Dr. Owe G. Petersen, Dr. Mark Sebern, Dr. Robert A. Strangeway, Dr. Thomas J. Swiontek, Dr. Stephen Williams, Dr. Glenn Wrate Associate Professors: Dr. Eric Durant, Dr. Ronald Gerrits, Dr. Russell Meier, Dr. Joerg Mossbrucker, John Starr, Dr. Christopher Taylor, Hue V. Tran, Dr. Charles Tritt Assistant Professors: Dr. Mark Hornick, Dr. Olga Imas, Dr. Jovan Jevtic, Dr. Richard Kelnhofer, Dr. Jeffrey LaMack, Dr. Bharathwaj Muthuswamy, Dr. Cory Prust, Dr. Sheila Ross, Dr. Darrin Rothe, Dr. Walter Schilling, Dr. Benjamin Uphoff, Dr. Jay Urbain, Dr. Jay Wierer Adjunct Professors: Dr. Kishore Acharya, Dr. Ellis Avner, Dr. John Brauer, Dr. Michael J. Dunn, Dr. Mark T. Harris, Dr. Cheryl A. Maurana, Dr. Reza Shaker, Dr. Gilbert C. White, Dr. William R. Wiener, Dr. Gerald Woelfl Adjunct Associate Professors: James J. Blaha, John Lunz, Dr. Gerald Thomas, Dr. Robert Turney, John Wheeldon Adjunct Assistant Professors: Brad Becker, Maheshwar Gundelly, Frederick Hoadley, Mark Krueger, Christopher J. Merkl, Jeffry Orthober, Brian Petted, James Rodrian, Jeff Roznowski, Dr. Nancy Schlick, Dr. Chandana Tamma, Dr. Michael J. Wenzel Lecturer: Dean Thomas Bray Professors Emeriti: Bernard Budny, Dr. Vincent R. Canino, Dr. Michael T. Chier, James Eckl, Frank Evans, Dr. Donald Petzold, Dr. Steven Reyer, Dr. Hadi Saadat, Hans Schroeder, Thomas Tillman, Dr. Richard J. Ungrodt EECS Technical Support: Martin Handley, manager; Valery J. Meyer, engineering technician

115

Bachelor of Science Biomedical Engineering Program Director: Dr. Charles S. Tritt Office: S-364 Phone: (414) 277-7421 Fax: (414) 277-7465 E-mail: tritt@msoe.edu Biomedical engineers use scientific knowledge and engineering principles to solve health care related problems. They often create and improve medical devices. Biomedical engineers are also frequently involved in medical research. In general, they use the latest technologies and techniques to improve human well being.

Specialty Areas in Biomedical Engineering Biomedical engineering is a very broad field with several widely recognized specialty areas. Electronic Medical Instrumentation and Bio-signal Processing Electronic medical instrumentation and modern measurement techniques are routinely used to monitor patients and to diagnose and treat their diseases. Computers and embedded microcontrollers are essential parts of most modern medical devices, which include heart monitors, pulse oximeters, cardiac defibrillators and glucose monitors. Biomedical engineers apply signal processing methods to the design of medical devices that monitor and diagnose conditions in the human body. Bio-signal processing involves the sophisticated analysis of data collected from patients or experimental subjects using medical instrumentation in an effort to interpret these signals. This provides physicians and researchers with vital information about the condition of their subjects. Applications of bio-signal processing include heart arrhythmia detection and anesthesia monitoring. Biomaterials, Tissue Engineering and Regenerative Medicine Biomaterials include living tissue and natural and synthetic materials used for implantation and in medical devices. Understanding the properties of the living materials is vital in the selection of implantable materials. Selecting appropriate material to place in the human body may be one of the most difficult tasks faced by a biomedical engineer. Biomaterials must be nontoxic, non-carcinogenic, chemically inert, stable and often must be mechanically strong enough to withstand the repeated forces during a lifetime of use. Examples of biomaterials include temporary synthetic skin replacements, dental adhesives, bone cements, metals and polymers used in replacement joints and materials used in heart valve prosthetics.

Tissue engineering and regenerative medicine is one of the newest and most rapidly advancing areas of biomedical engineering. Tissue engineering involves the formation of new tissues, either directly inside the body or ex vivo for implantation, to replace tissue damaged or destroyed by accident, disease, or congenital defect. Tissue engineering often involves the use of carefully designed synthetic scaffolds. Regenerative medicine involves inducing the body to regenerate natural tissue rather than form scar tissue after an injury. Examples of regenerative medicine include the production of permanent living skin replacements, the regeneration of damaged cartilage and inducing the regeneration of functional heart muscle after heart attacks. 116

Medical Imaging Medical imaging combines knowledge of unique physical phenomena (sound, radiation, magnetism, etc.) with high speed electronic data processing, analysis and display to generate images of medical interest. Often, these images can be obtained with minimally or completely noninvasive procedures. Examples include ultrasound imaging, magnetic resonance imaging (MRI) and computed x-ray tomography (CT). Artificial Organs In the past 50 years, biomedical engineers have helped create artificial replacements for several human organs, including artificial lungs, hearts, kidneys and skin. However, none of these replacement organs work as well as their natural counterparts and there are several other organs that have so far not been successfully replaced. These shortcomings in artificial organ technology illustrate the need for biomedical engineers to continue their efforts to improve existing and create new artificial organs.

Rehabilitation engineering uses concepts in biomechanics and other areas to develop devices to enhance the capabilities and improve the quality of life for individuals with physical and cognitive impairments. Examples include orthotics, prosthetic limbs and home and workplace assistive devices. Systems Physiology and Modeling In the context of biomedical engineering, modeling refers to the use of mathematic, scientific and engineering principles to predict the behavior of systems. Systems may include the entire human body, organs or organ systems, tissues, medical devices and combinations of these.

Biomedical Engineering

Biomechanics and Rehabilitation Engineering Biomechanics is the application of fluid mechanics, transport phenomena, kinematics and mechanical statics and dynamics to biological and medical situations. It includes the study of motion, material deformation and flow within the body, as well as the behavior of devices and transport processes in the body. Examples include the development of drug releasing skin patches, artificial hearts and heart-assist devices, replacement heart valves and artificial joints.

This aspect of biomedical engineering is used to gain a comprehensive and integrated understanding of the function of living systems and the interaction of medical devices with these systems. Modeling is used in the analysis of experimental data and in formulating mathematical descriptions of physiological events. In research, modeling is used as a predictive tool in designing new experiments to refine knowledge and understanding. Examples include the prediction of plasma glucose concentration in normal and diabetic individuals, dynamic models of the biochemistry of human metabolism and modeling limb movements in normal and disease states.

117

MSOE’s Biomedical Engineering Curriculum The biomedical engineering curriculum at MSOE enables students to develop relevant knowledge and engineering skills. This challenging curriculum exposes students to all the major technical areas of biomedical engineering as well as related non-technical topics. At the heart of this curriculum is a seven-quarter capstone design sequence in which student teams complete a biomedical design project using the same processes currently used in industry. As a result, graduates are well prepared to excel in either academic or industrial careers. Biomedical engineering at MSOE starts with a solid foundation in general science and engineering topics. Students learn mathematics, physics, chemistry and social sciences. Biomedical engineering students also learn fundamental aspects of other traditional types of engineering such as electrical, mechanical and chemical. Finally, students gain specialized scientific knowledge in life science areas such as cell biology, molecular biology, biochemistry, biostatistics, anatomy and physiology as well as advanced engineering skills in specialty areas such as bio-transport, electronic medical instrumentation, biomaterials, biomechanics and medical imaging. This breadth allows them to solve the unique problems that arise in health care situations. MSOE’s biomedical engineering program covers all the major specialty areas in the field, giving students: • a wide variety of career options after graduation. • a strong focus on the complete engineering design process including market analysis, customer focus, explicit specification statements, feasibility studies, formal presentations, regulatory compliance, design review, and prototype development and testing. • an emphasis on entrepreneurship in both specific courses and throughout the curriculum. • the extensive application of the theoretical principles in modern laboratory experiences including a series of joint laboratory courses that integrate principles from traditionally distinct lecture courses. • ready access to faculty, equipment, facilities and industry contacts to emphasize professional and academic development. • a solid foundation of engineering and life-sciences fundamentals to provide the basis for specialized biomedical engineering learning. • the use of a quarter-based academic calendar, which allows for more total courses and unique courses as compared to semester-based programs.

Program Objectives (v. 7.0) • Engineering Skills – Biomedical engineering graduates possess the skills required to function as entry level engineers as evaluated by the Fundamentals of Engineering examination. Additionally, they are able to solve multidisciplinary problems, evaluate alternative solutions to engineering problems and succeed in their selected profession. • Design Skills – Biomedical engineering graduates demonstrate industrial and professional skills that allow them to function as productive members of an engineering design team. Industrial skills include an understanding of common industrial design practices and entrepreneurial ventures. Professional skills include effective communication, multi-disciplinary teamwork, leadership and global awareness.

118

• Professional Responsibility – Biomedical engineering graduates exhibit professional responsibility and recognize the ethical, legal and social issues involved in biomedical engineering. Alumni also recognize the need to include service to society in the form of service to the engineering profession as well as other social, charitable and civic organizations. • Career Planning and Development – Biomedical engineering graduates engage in reflection, planning, self-assessment, growth and continual life-long learning to ensure a successful career.

Program Outcomes (v. 4.0) Graduates will have the ability to: • evaluate systems in the areas of medical instrumentation, biomaterials, biomechanics, signal processing, imaging, biomedical control systems and physiological modeling. • apply knowledge of mathematics including calculus, differential equations, statistics and vector and matrix analyses.

• apply knowledge of engineering science across the range of engineering topics. • solve problems at the interface of engineering and biology. • to design and conduct experiments, as well as to measure, analyze and interpret data involving both living and non-living systems. • identify, formulate and solve engineering problems involving living systems. • use the techniques, skills and modern engineering tools necessary for engineering practice. • design a system, component, or process considering realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability and sustainability to meet desired needs including the need to address the problems associated with the interaction between living and onliving materials and systems.

Biomedical Engineering

• apply knowledge of science including physics, chemistry, biology and physiology.

• communicate effectively. • function on multi-disciplinary teams. • understand professional and ethical responsibility including the special requirements imposed on engineering solutions applied to living systems. • understand the impact of engineering solutions in a global, economic, environmental and societal context with special consideration given to health care issues. • recognize the need for and desire to engage in lifelong learning. • be aware of contemporary issues with special consideration given to those issues that apply to living systems.

119

FRESHMAN YEAR

BACHELOR OF SCIENCE BIOMEDICAL ENGINEERING Model Full-time Track - V4.2 ------------QUARTER-----------1 2 3

BI-102 CH-200 EN-131 HU-100 MA-136 OR-100

Cell Biology and Genetics Chemistry I Composition Contemporary Issues in the Humanities Calculus for Engineers I Freshman Orientation1

BE-1000 CH-201 EN-132 MA-137 PH-2010

Introduction to Biomedical Engineering Chemistry II Technical Composition Calculus for Engineers II Physics I - Mechanics

CH-222 EN-241 MA-231 MA-3610 PH-2020

Organic Chemistry I Speech Calculus for Engineers III Biostatistics Physics II - Electromagnetism and Optics TOTALS

SOPHOMORE YEAR BE-2200 CH-223 MA-235 ME-205 MS-3425 EE-201 ME-206 MS-3427 PH-2030 SS-461 BE-2000 BE-206 MA-232 ME-207 EE-2905

Computing in Biomedical and BioMolecular Engineering Biochemistry Differential Equations for Engineers Engineering Statics Entrepreneurship - An Overview

1-3-2 3-2-4 3-0-3 4-0-4 3-3-4 2-2-3 2-2-3 4-0-4 4-0-4 3-3-4 17-5-18

14-8-17

15-7-18

3-3-4 3-2-4 4-0-4 4-0-4 1-0-1

Linear Networks: Steady-State Analysis Engineering Dynamics Entrepreneurial Business Plans Physics III - Thermodynamics and Quantum Physics Organizational Psychology

4-0-4 4-0-4 1-0-1 3-3-4 3-0-3

Biomedical Engineering Design I Biomedical Signals and Systems I Calculus for Engineers IV Mechanics of Materials Introduction to Embedded Systems and Digital Electronics TOTALS

120

3-3-4 3-2-4 3-0-3 3-0-3 4-0-4 1-0-0

1-0-1 3-3-4 3-0-3 3-2-4 3-3-4 15-5-17

15-3-16

13-8-16

JUNIOR YEAR Biomedical Engineering Design II Quantitative Systems Physiology I Bio-thermal-fluid Transport 1 Biomedical Signals and Systems II Physiology and Bio-System Joint Laboratory Elective2

BE-3001 BE-3110 BE-3510 BE-3910 BE-3600

Biomedical Engineering Design III Quantitative Systems Physiology II Bio-thermal-fluid Transport 2 Physiology and Biotransport Joint Laboratory Elective2 Biomedical Instrumentation

BE-3002 BE-3920 BE-410 BE-411 HU-332 EE-3111

Biomedical Engineering Design IV Biomaterials and Biomechanics Joint Laboratory Biomaterials Biomechanics Bioethics Electronic Devices and Circuits TOTALS

SENIOR YEAR BE-4000 BE-4700 BE-4800

Biomedical Engineering Design V Biomedical Electronics Biomedical Digital Signal Processing Elective2 Elective2

BE-4001 BE-4810 BE-4830

Biomedical Engineering Design VI Biomedical Feedback Control Systems I Medical Imaging Systems Elective2 Elective2

BE-4002

Biomedical Engineering Design VII Elective2 Elective2 Biomedical Feedback Control Systems II

BE-4820

TOTALS

1-2-2 3-0-3 4-0-4 3-0-3 1-2-2 3-0-3 1-2-2 3-0-3 3-0-3 1-2-2 3-0-3 3-3-4 1-2-2 1-2-2 3-0-3 3-0-3 3-0-3 3-3-4 15-4-17

14-7-17

2-3-3 3-3-4 2-3-3 3-0-3 3-0-3 2-3-3 3-3-4 3-0-3 3-0-3 3-0-3

Biomedical Engineering

BE-3000 BE-3100 BE-3500 BE-3800 BE-3900

------------QUARTER-----------7 8 9

2-3-3 3-0-3 3-0-3 3-3-4 13-9-16

14-6-16

11-6-13

1 Transfer

students who have completed 36 quarter or 24 semester credits will be waived from OR-100, but will be required to complete OR-301 Transfer Orientation.

2 There

are 24 credits (8 courses) of electives that must be taken as detailed:

• 15 credits (5 courses) must be humanities and social science (HU/SS) electives, of which 6 credits must be taken in the humanities area, 6 credits in the social science area, and 3 credits in either area. • 6 credits (2 courses) must be technical electives taken from the approved list or with prior approval. • 3 credits (1 course) must be a professional elective taken from the approved list or with prior approval. Accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org.

121

Partial List of Professional and Technical Electives Biomedical Engineering Professional Electives EN-432 Business Communications IE-340 IE-440 MS-331 MS-3330 MS-4801 MS-3411 MS-354 TC-452 TC-332 TC-342

Project Management Team Leadership/Facilitation Business Law Legal Aspects of Innovation and Entrepreneurship Project Management Leading Project Teams Principles of Accounting Interpersonal Communications Advanced Technical Writing Professional Presentation Techniques

Biomedical Engineering Technical Electives1 BE-330 BE-4010 BE-4980 BE-499 CH-302 CH-322 CH-371 CH-373 CH-3650 CH-3660 EE-3202 EE-464 EE-423 EE-4720 EE-444 EE-487 EE-481 EE-484 EE-488 MA-343 MA-380 MA-381 MA-383 MA-385 MA-386 MA-387 MA-388 MA-3710

Biomedical Electromagnetic Fields International BE Products BE Independent Study Clinical Internship2 Chemistry III3 Organic Chemistry II3 Modern Biotechnology Advanced Biotechnology Materials Science Surface Properties of Materials Electric and Magnetic Fields Fiber Optic Communications Applications of DSP Control Systems Applications Power Electronics Machine Vision Fuzzy Sets and Applications Neural Networks Introduction to A. I. and Expert Systems Matrix Methods and Linear Programming Advanced Differential Equations Complex Variables Linear Algebra Modern Algebra with applications Functions of a Real Variable Partial Differential Equations Introduction to Number Theory Mathematical Biology

1Students

in the Air Force ROTC may take the following substitutions: AF-401 for 1 technical elective and AF-402 for 1 professional elective. All other AF courses must be scheduled in addition to the courses listed above.

2Students

wishing to take this course must see the BE program director approximately 10 weeks prior to the expected start date to arrange the internship.

3Students

planning to attend medical school should also take the laboratories associated with these courses (CH-303 and CH-323).

122

ME-321 ME-322 ME-424 ME-429 IE-431 IE-4332 IE-348 IE-449 PH-322 PH -320 PH-324 PH-360 PH- 361 PH-363 PH-3710 SC-310 SS-464

Materials Science Engineering Materials Engineering with Plastics Composite Materials Six Sigma Methods Lean Quality Assurance Quality Management Introduction to Optics and Photonics Lasers and Applications Fiber Optics and Fiber Optic Sensors Physics of Electronics Physics of Materials Electronic Materials and Devices Introduction to Biophysics Nanotechnology Human Factors in Engineering and Design

Biomedical Engineering 123

Bachelor of Science Computer Engineering Program Director: Dr. Eric Durant Office: L-339 Phone: (414) 277-7439 Fax: (414) 277-7465 E-mail: durant@msoe.edu Website: www.msoe.edu/eecs/ce Computer engineers are at the forefront of knowledge in arguably the most innovative professional discipline in the world. Beyond desktop and laptop computers, things like iPods, BlackBerrys, TiVo, DVRs, mp3 players, anti-lock brakes, satellite radio, cell phones, avionics, “smart” credit cards and countless other 21st-century products exist today thanks to the creativity, knowledge and skills of computer engineers. MSOE’s B.S. in computer engineering program balances hardware and software, building on the disciplines of electrical engineering and computer science, by coupling computer hardware topics with the study of software – all this starting at the freshman level. Employers come back to MSOE year after year because of the level of knowledge, skills and professionalism our computer engineering graduates bring to the workplace. Their achievements are impressive, and you will find them working in exciting positions with some of the most respected companies and organizations across the country.

Program Objectives In their work as computer engineers, graduates will: • demonstrate the skills that society commonly expects of members of the engineering profession and recognize the need to include service to society in their career plans. • possess the skills required to function as an engineer in the areas of embedded systems, embedded software and computer systems. • demonstrate personal and professional skills allowing them to function as productive members of an engineering team. Professional skills include an understanding of common industrial practices that will allow them to excel in industrial, laboratory, or entrepreneurial venues. • recognize the ethical, legal, and societal issues involved in the practice of engineering. • know the many career options open to computer engineering graduates, and understand the need for lifelong learning and the many ways in which such learning can take place.

124

Program Outcomes Graduates of the computer engineering program will have: • an ability to apply knowledge of mathematics, science and engineering. • an ability to design and conduct experiments, as well as to analyze and interpret data. • an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability and sustainability. • an ability to function on multidisciplinary teams. • an ability to identify, formulate, and solve engineering problems. • an understanding of professional and ethical responsibility. • an ability to communicate effectively. • the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental and societal context. • knowledge of contemporary issues. • an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice. • an ability to apply knowledge of probability and statistics to computer engineering.

Computer Engineering Electives Credit In Quarter Hours

BE-4830 CE-3200 CE-4930 CE-499 CS-386 CS-421 CS-4220 CS-4802 CS-4881

Medical Imaging Systems Wireless Sensor Networks Computer Architecture II Independent Study Introduction to Database Systems Advanced Computer Graphics Web Software Applications Digital Image Processing Artificial Intelligence

3 3 3 3 3 3 3 3 3

CS-4920

Information Security

CS-493 EE-3101 EE-3111 EE-393 EE-423 EE-4720 EE-481 EE-484 SE-3250 SE-4910 SE-4940

Advanced Digital Design Operational Amplifier Design Electronic Devices and Circuits VLSI Design Application of DSP Control Systems Applications Fuzzy Sets and Applications Neural Networks Introduction to Game Development Mobile Application Development Network Security Tools and Practice

3 4 4 4 3 3 3 3 3 3 3

Computer Engineering

• a recognition of the need for, and an ability to engage in life-long learning.

125

FRESHMAN YEAR

BACHELOR OF SCIENCE COMPUTER ENGINEERING Model Full-time Track - V3.4 ------------QUARTER-----------1 2 3

EN-131 HU-100 MA-136 OR-100 CE-1900 SE-1011

Composition Contemporary Issues in the Humanities Calculus for Engineers I Freshman Orientation1 Digital Logic I: Combinational Systems Software Development I

CH-200 EN-132 MA-137 CE-1910 SE-1021

Chemistry I Technical Composition Calculus for Engineers II Digital Logic II: Sequential Systems Software Development II

EE-2050 EN-241 MA-231 CS-2852

Linear Circuits - Steady State I Speech Calculus for Engineers III Data Structures TOTALS

3-0-3 3-0-3 4-0-4 1-0-0 2-2-3 3-2-4 3-2-4 3-0-3 4-0-4 2-2-3 3-2-4 3-2-4 2-2-3 4-0-4 3-2-4 16-4-17

15-6-18

12-6-15

SOPHOMORE YEAR CE-2800 EE-2060 MA-235 PH-2010

Embedded Systems I Linear Circuits - Steady State II Differential Equations for Engineers Physics I - Mechanics

EE-2070 OR-2000 PH-2020 CE-2811 MA-2310

Linear Circuits - Transients Leadership and Teamwork Physics II - Electromagnetism and Optics Embedded Systems II Discrete Mathematics I

CE-2930 MA-232 SE-2890 MS-2220 PH-2030

Introduction to Computer Architecture Calculus for Engineers IV Software Engineering Practices Foundations of Business Economics Physics III - Thermodynamics and Quantum Physics TOTALS

126

3-3-4 3-3-4 4-0-4 3-3-4 3-0-3 0-2-1 3-3-4 3-3-4 3-0-3

13-9-16

3-2-4 3-0-3 2-2-3 3-0-3 3-3-4 12-8-15

14-7-17

JUNIOR YEAR CS-3841 EE-3050 MA-383 SS-461 PH-360

Design of Operating Systems Dynamic Systems Linear Algebra Organizational Psychology Physics of Semiconductor Materials and Devices

EE-3720 MA-262 OR-3000 OR-402 EE-3220 CS-321

Control Systems Probability and Statistics Applied Servant-Leadership Professional Guidance Digital Signal Processing Computer Graphics

CE-3910 HU-432 ME-354 MS-3423 CE-3100

Embedded Systems III Ethics for Professional Managers and Engineers Thermodynamics and Heat Transfer Innovation and Business Markets Digital Electronic Interfacing TOTALS

CE-4000 CE-4920

Senior Design Project I Embedded Systems IV Elective (Program)2 Elective (HU/SS)2 Elective (HU/SS)

CE-4010 CE-4950

Senior Design Project II Networking I Elective (HU/SS)2 Elective (HU/SS)2 Elective (Free)

CE-4020 CE-4960

Senior Design Project III Networking II Elective (Program)2 Elective (Math/Science)2 Elective (HU/SS)2 TOTALS

3-2-4 3-0-3 3-0-3 3-0-3 3-3-4 3-3-4 3-0-3 0-2-1 1-0-1 3-2-4 3-3-4 3-2-4 3-0-3 3-0-3 3-0-3 3-3-4 15-5-17

13-10-17

15-5-17

2-2-3 2-2-3 3-0-3 3-0-3 3-0-3 2-2-3 2-2-3 3-0-3 3-0-3 3-0-3 2-2-3 2-2-3 3-0-3 3-0-3 3-0-3 13-4-15

13-4-15

Computer Engineering

SENIOR YEAR

------------QUARTER-----------7 8 9

13-4-15

1 Transfer

students who have completed 36 quarter or 24 semester credits will be waived from OR-100, but will be required to complete OR-301 Transfer Student Orientation.

2 There

are 27 credits of elective subjects in the computer engineering program which must be taken as follows:

• 15 credits of humanities and social sciences: 6 credits of humanities (HU), 6 credits of social science (SS), and 3 credits of humanities or social science • 6 credits of approved program electives • 3 credits of approved math/science elective • 3 credits of an approved upper-division course from any area Engineering technology courses may not be used to satisfy requirements of the computer engineering curriculum. Students enrolled in Air Force ROTC must complete AF-100, AF-200, AF-202, AF-300, AF-301, AF-302, AF-400, AF-401, and AF-402. Upon completion of these courses credit will be given for SS-455 (a social science elective), OR-2000, OR3000, one program elective, and the free elective. Accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org.

127

Bachelor of Science Electrical Engineering Program Director: Dr. Stephen Williams, P.E. Office: S-300 Phone: (414) 277-7420 Fax: (414) 277-7465 E-mail: williams@msoe.edu Website: www.msoe.edu/eecs/ee Have you ever thought about who created items you so commonly use? Your livelihood depends on electrically engineered products such as your cell phone, HDTV, GPS navigators and implantable defibrillators. Electrical engineers create all such things that use electricity to improve peoples’ lives. Consider becoming an electrical engineer if you: • like to work with physical things you can touch and see, such as electronic components and products, yet use a computer to control and interact with these components and products. • want a broad choice of career opportunities, yet be able to specialize in topics of your choosing. • are looking for a career that can last a lifetime, yet can also serve as a springboard for other opportunities, such as management, business and law. Consider studying electrical engineering at MSOE for the following reasons: • The curriculum is broadly based with a primary focus on hardware— equipment that is real; objects you can see, hold and break. Some of what you will work with can only be seen under a microscope (integrated circuits, nanotechnology) and some will dwarf you (power station generators, wind turbines and solar arrays). • You will experience a strong emphasis on design and hands-on laboratory experimentation. • You will learn about communications, controls, motors, embedded systems, electronics, microprocessors and more, and use software applications. • The curriculum has one or more electrical engineering courses in every quarter of each academic year, including the entire freshman year.

128

Program Objectives The electrical engineering program is preparing graduates to achieve the following objectives in their career and professional accomplishments: • The technical maturity necessary to be productive and successful in their chosen field. • Active participation in the affairs of their profession and continued professional development.

Program Outcomes In support of the program objectives, graduates of the program must demonstrate that they have: • an ability to apply knowledge of mathematics, science and engineering. • an ability to design and conduct experiments, as well as to analyze and interpret data. • an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability and sustainability. • an ability to identify, formulate and solve engineering problems. • an understanding of professional and ethical responsibility. • an ability to communicate effectively. • the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental and societal context. • a recognition of the need for and an ability to engage in life-long learning. • a knowledge of contemporary issues. • an ability to use the techniques, skills and modern engineering tools necessary for engineering practice.

Electrical Engineering

• an ability to function on multidisciplinary teams.

• an ability to apply knowledge of probability and statistics to electrical engineering.

129

The Electrical Engineering Curriculum The electrical engineering program (BSEE) at MSOE places a very strong emphasis on design, applications and hands-on laboratory experimentation. Think for a moment of how you can demonstrate that you learned something very well. What if, in addition to the normal exams, you designed, built and debugged an electronic circuit that functions just like it is supposed to? The laboratory is a great place to work out the details of your understanding of the theory. Consequently, the BSEE program at MSOE prepares its graduates for successful entry into the engineering profession, as well as for graduate school. Design and laboratory projects grow in complexity throughout the four-year BSEE curriculum. In the freshman year students start with experiments that range over electrical engineering topics, such as microprocessors, communications, motors and digital circuits. Students learn structured programming executed on an embedded system and the basics of circuit theory. In succeeding years typical topics covered include: designing decision-making circuits and using the software applications MATLAB and Simulink in the analysis and design of automatic control systems. This design process culminates in the senior design project where a team of senior students (often coming together from different disciplines) work on a single major project for the entire academic year. The project is taken from concept to a working prototype. Recent projects included: • • • • •

Tactical Response SWAT Robot Internet-Enabled Heart Health Monitor Universal Test Platform for NASA Zero-Gravity Flights Solar Powered Boat for Competitive Racing SAE Formula Hybrid Vehicle

Many of the projects use wireless communication and microprocessors. The projects are usually defined by the students, sometimes with the help of faculty and/or local industry. Because of its urban location, MSOE has a very strong relationship with local industry. This is very advantageous for students, not just for design projects, but also for industry internships or summer jobs. BSEE students have the option of a very unique junior year study-abroad program with the Lübeck University of Applied Sciences in Lübeck, Germany. This is a tremendous opportunity for anyone who is thinking about a career path that involves the global economy and viewpoint. For details, please see page 136 of this catalog.

130

Careers in Electrical Engineering Graduating with a degree in electrical engineering prepares the student for an extremely wide variety of careers in almost any industry. Examples of the types of industries graduates could work in include: Aerospace Automation Automotive Communications Computers Electronics Instrumentation Integrated circuits Medical Power generation/distribution

Examples of the types of jobs that are available: Computer automation Computer modeling/simulations Development of new products Design of products or equipment Manufacturing/production Project leader Researcher of new ideas Technical marketing

Electrical Engineering

Examples of typical electrical engineering topical areas implemented in these industries are: Expert systems High-definition television Micro-electromechanical systems Microprocessor controls Optical communications Programmable controllers Robotics Wireless communications

Examples of specific career opportunities: Design engineer – Uses computer simulations and modeling to design new high-frequency circuits for digital cellular phones. Research engineer – Invents new optoelectronic devices to build an optical computer. Project engineer – Leads a team of engineers from different disciplines to design, test and manufacture an undersea optical amplifier. Test engineer – Writes and implements the computer program to do automated testing of an electronic ignition system. Application engineer – Defines and integrates existing equipment to solve customer problems. System engineer – Defines and develops a communications network.

131

FRESHMAN YEAR

BACHELOR OF SCIENCE ELECTRICAL ENGINEERING Model Full-time Track - V15.4 ------------QUARTER-----------1 2 3

EE-100 MA-136 EN-131 HU-100 OR-100

Introduction to Electrical Engineering Calculus for Engineers I Composition Contemporary Issues in the Humanities Freshman Orientation1 Elective (Business)2

EE-1910 MA-137 EN-132 CH-200 AE-1311

Introduction to Computer Programming Calculus for Engineers II Technical Composition Chemistry I Introduction to CAD

EE-2050 MA-231 EN-241 EG-1260 PH-2010

Linear Circuits - Steady State I Calculus for Engineers III Speech Engineering Graphics - Visualization Physics I - Mechanics TOTALS

1-2-2 4-0-4 3-0-3 3-0-3 1-0-0 3-0-3 3-3-4 4-0-4 3-0-3 3-2-4 1-1-1 3-2-4 4-0-4 2-2-3 0-2-1 3-3-4 15-2-15

14-6-16

12-9-16

SOPHOMORE YEAR EE-2060 EE-2920 MA-235 PH-2020

Linear Circuits - Steady State II Embedded Systems Differential Equations for Engineers Physics II - Electromagnetism and Optics

EE-2070 EE-2930 EE-2900 MA-232 PH-2030

Linear Circuits - Transients Systems Interfacing Combinational Logic Circuits Calculus for Engineers IV Physics III - Thermodynamics and Quantum Physics

EE-2902 CS-2510 MA-383 ME-255 ME-354

Sequential Logic Circuits Introduction to Object-Oriented Programming Linear Algebra Engineering Statics for Nonmechanical Engineers Thermodynamics and Heat Transfer TOTALS

132

3-3-4 3-3-4 4-0-4 3-3-4 3-0-3 2-2-3 3-3-4 3-0-3 3-3-4 3-3-4 2-2-3 3-0-3 3-0-3 3-0-3 13-9-16

14-8-17

14-5-16

JUNIOR YEAR EE-3050 EE-3101 EE-3921 IE-423 SS-461

Dynamic Systems Operational Amplifier Design Digital System Design Engineering Economy Organizational Psychology

EE-3111 EE-3202 EE-3220 EE-3720 GE-300

Electronic Devices and Circuits Electric and Magnetic Fields Digital Signal Processing Control Systems Career and Professional Guidance

EE-3031 EE-3212 EE-3401 MA-3620

Signals and Systems Electromagnetic Waves Electromechanical Energy Conversion Random Variables and Statistics Elective (Science)2 TOTALS

SENIOR YEAR Senior Design Project I Principles of Communications Physics of Electronics Elective (Technical)2 Elective (HU/SS)2

EE-408

Senior Design Project II Elective (Technical)2 Elective (Technical)2 Elective (HU/SS)2 Elective (HU/SS)2

EE-409 HU-432

Senior Design Project III Ethics for Professional Managers and Engineers Elective (Technical)2 Elective (HU/SS)2 Elective (HU/SS)2 TOTALS

3-0-3 3-3-4 3-2-4 3-0-3 3-0-3 3-3-4 3-0-3 3-2-4 3-3-4 0-2-1 4-0-4 3-2-4 3-3-4 3-0-3 3-0-3 15-5-17

12-10-16

16-5-18

3-0-3 3-2-4 3-3-4 3-0-3 3-0-3 2-3-3 3-0-3 3-0-3 3-0-3 3-0-3 2-3-3 3-0-3 3-0-3 3-0-3 3-0-3 15-5-17

14-3-15

Electrical Engineering

EE-407 EE-4021 PH-360

------------QUARTER-----------7 8 9

14-3-15

1Transfer

students who have completed 36 quarter credits or 24 semester credits will be waived from OR-100, but will be required to complete OR-301 Transfer Student Orientation.

The 33 credits of elective subjects in the electrical engineering program must be taken as follows: •15 required credits of humanities and social science electives: 6 credits of humanities (HU), 6 credits of social science (SS), and 3 credits of humanities or social science. • 12 credits of approved EE program technical electives. • 3 credits of approved science elective. • 3 credits of approved business (economics/entrepreneurship) elective.

Engineering technology courses may not be used to satisfy any electrical engineering program requirements. Students in Air Force ROTC may make the following course substitutions: the course combination AF-400/401 for SS-455 (a social science elective), AF-402 for a technical elective, and the course sequence AF-300/301/302 for both EE-3212 and SS-461. Additional AF courses cannot be used to satisfy any electrical engineering requirements. Accredited by the Engineering Accreditation Commission of the ABET, http://www.abet.org.

133

Electrical Engineering Electives Credit In Quarter Hours

CE-4950 EE-393 EE-4050 EE-4060

Networking I VLSI Design Low-Noise Analog System Design Introduction to Nonlinear Dynamics and Chaos EE-4112 Advanced Analog Electronics EE-421 Digital Communication Systems EE-423 Applications of DSP EE-424 Data Communications EE-425 Radio Frequency Circuit Design EE-4250 Advanced Signal Processing EE-429 Microwave Engineering EE-444 Power Electronics EE-447 Power System Analysis I EE-449 Power System Analysis II EE-4720 Control Systems Applications EE-474 Programmable Controllers EE-481 Fuzzy Sets and Applications EE-484 Neural Networks EE-487 Machine Vision EE-488 Introduction to Artificial Intelligence and Expert Systems EE-493 Advanced Microprocessors EE-499 Independent Study

134

3 4 3 3 3 3 3 3 3 3 3 3 3 3 3 3 3 3 3 3 3 1-3

Electrical Engineering Cooperative Education Program Cooperative education is designed to integrate classroom study with planned and supervised work experiences. The co-op program offers students an opportunity to gain industrial experience as part of their formal education. Electrical engineering co-op students are employed in technical capacities in research, development, design, manufacturing and engineering departments of industrial companies, consulting firms and in federal and state agencies. The employment sessions begin in the summer following the sophomore year and typically include three rotations of co-op experience. Each rotation lasts for one academic term and one summer. This five-year program is optional and currently only available for electrical engineering students. Co-op positions are not guaranteed. Positions are awarded at the discretion of the employer after a competitive interviewing process. Anyone interested in a co-op position should contact the Career Placement Office at (414) 277 7120.

Advantages to the Student The co-op program: • provides practical work experience. • develops greater professional understanding: Students develop greater understanding of other people and learn varied techniques of human relations by their personal contact with their fellow workers and peers. • accelerates maturation: Students mature more quickly by their association with professional people in their everyday work. • provides orientation to the world of work. The co-op program provides a solid foundation for career planning and career guidance in the following ways:

• test interests and abilities in connection with real jobs. • gain firsthand career information and guidance in the co-op environment. • discover strengths and weaknesses through co-op employment.

Electrical Engineering

• increases educational motivation.

• provides financial aid. • provides useful employment contacts.

Requirements for the Electrical Engineering Co-op Program • Full-time student status in electrical engineering at MSOE. • Maintain a minimum cumulative GPA of 2.50. • Must have completed the sophomore year and receive prior approval from the Electrical Engineering and Computer Science Department co-op administrator prior to applying for a co-op experience. • Any student who wishes to pursue placement in a co-op position must have an application form on file in the Career Placement Office and a resume completed on Career Net.

135

German Study-abroad Program Students in the electrical engineering program at MSOE have the opportunity to study abroad through an agreement between MSOE and the Lübeck University of Applied Sciences in Lübeck, Germany. The timing could not be better. American business is competing on an international level like at no other time in U.S. history. Foreign companies are buying or forming alliances with American companies at a record pace. There is an increasing likelihood of a graduate doing business with or even working for a foreign-owned company. The graduate who has traveled internationally, speaks a foreign language or has an understanding of the cultures and traditions of other nations will have a marked advantage. The MSOE German Study-abroad Program enables students to study for one year at a German university where the focus is in the area of applied engineering with superbly outfitted laboratories, while at the same time gaining firsthand experience by being immersed in German culture. The key features of MSOE’s program are: • All instruction is in English. Students do NOT need to know any German. • Students will receive two degrees, one from MSOE and one from the Lübeck University of Applied Sciences. • Students will graduate on schedule, if they stay on track in the EE curriculum. EE Study-abroad Coordinator: Dr. Jörg Mossbrucker Office: S-352 Phone: (414) 277-7418 Fax: (414) 277-7465 E-mail: mossbruc@msoe.edu

The Program Electrical engineering students who enroll in the German Study-abroad Program will study for two semesters at the Lübeck University of Applied Sciences during their junior year (certain academic requirements are applicable – see program director for details). The school year runs September through June with extensive breaks, including between semesters, providing an excellent opportunity for European travel. Students live in off-campus housing arranged by the university. They are in class with their German counterparts studying a curriculum that includes the following topics: First Semester Analog electronics Control systems Signal analysis Principles of communication Microwaves Humanities/social sciences German language and culture

136

Second Semester Computer-aided design Control systems laboratory Programmable controllers Microwaves Principles of communication Humanities/social sciences German language and culture

Lübeck University of Applied Sciences The Lübeck University of Applied Sciences (FHL) has a long tradition that goes back as far as 1808 when the first Navigation School was founded. This highly regarded applied engineering university in the Federal Republic of Germany has approximately 115 professors, 90 staff engineers and 70 laboratories to provide its 3,000 students with an excellent educational experience. The university combines the availability of the latest equipment with a nationally recognized level of expertise, providing students with a quality education and excellent professional opportunities following graduation.

Lübeck, Germany Founded in A.D. 1134, Hansestadt Lübeck is among the few European cities whose Middle Ages appearance is still intact. In 1987, a portion of the old part of town was declared a UNESCO World Heritage Site and was included in the list of the cultural and natural heritage of the world.

Electrical Engineering Study Abroad

Located in the German state of Schleswig-Holstein on the Baltic Sea, this city of approximately 210,000 offers a variety of attractive cultural and recreational opportunities, especially for young people. Considered the “Cultural Capital of the North,” Lübeck offers a lively art scene with the Engelswisch Art Centre, OverbeckGesellschaft and Kunsthaus, and gallery of Metta Linde. Lübeck is the main venue for the world-famous Schleswig-Holstein Music Festival, and its Northern Film Days turn Lübeck into the film capital of northern Europe. The adjacent Baltic resort of Travemünde offers beaches and night life.

137

BACHELOR OF SCIENCE ELECTRICAL ENGINEERING German Study-abroad Track V7.0A – MSOE Students

FRESHMAN YEAR AT MSOE EE-100 MA-136 EN-131 HU-100 OR-100

Introduction to Electrical Engineering Calculus for Engineers I Composition Business Elective Contemporary Issues Freshman Orientation1

EE-1910 MA-137 EN-132 CH-200 AE-1311

Intro to Computer Programming Calculus for Engineers II Technical Composition Chemistry I Introduction to CAD

EE-2050 MA-231 PH-2010 EN-241 EG-1260

Linear Circuits – Steady State I Calculus for Engineers III Physics I Speech Engineering Graphics-Visualization TOTALS

SOPHOMORE YEAR AT MSOE EE-2060 EE-2920 MA-235 PH-2020

Linear Circuits – Steady State II Embedded Systems Diff. Equations for Engineers Physics II – Electromag. and Optics

EE-2070 EE-2930 EE-2900 MA-232 PH-2030 GE-300

Linear Circuits – Transients Systems Interfacing Combinational Logic Circuits Calculus for Engineers IV Physics III – Thermo. and Quantum Physics Career and Professional Guidance

EE-2902 MA-383 EE-3050 EE-3111 MA-3620

Sequential Logic Circuits Linear Algebra Dynamic Systems Electronic Devices and Circuits Random Variables and Statistics TOTALS

138

------------QUARTER-----------1 2 3 1-2-2 4-0-4 3-0-3 3-0-3 3-0-3 1-0-0 3-3-4 4-0-4 3-0-3 3-2-4 1-1-1 3-2-4 4-0-4 3-3-4 2-2-3 0-2-1 15-2-15

14-6-16

12-9-16

3-3-4 3-3-4 4-0-4 3-3-4

3-0-3 2-2-3 3-3-4 3-0-3 3-3-4 0-2-1 3-3-4 3-0-3 3-0-3 3-3-4 3-0-3 13-9-16

14-10-18

15-6-17

JUNIOR YEAR at FHL

------------QUARTER-----------Lecture Practice Lab ECTS2

Control Systems I Analog Electronics II Principles of Communications I Radio Frequencies Signals and Systems Humanities I German Language and Culture I

4 3 4 3 3 3 4

0 0 0 0 0 0 0

0 1 0 1 0 1 0

5 5 5 5 4 3 4 ECTS 31

Controls Systems II Programmable Logic Control Principles of Communications II Microwaves Computer Aided Design Humanities II German Language and Culture II

3 2 4 3 2 3 4

0 0 0 0 0 0 0

2 2 1 1 2 1 0

5 4 5 5 4 3 4 ECTS 30

SENIOR YEAR at MSOE Engineering Economics Physics of Electronics Senior Design Project I Digital System Design

EE-3202 EE-408 EE-3220 SS-461

Electric and Magnetic Fields Senior Design Project II Digital Signal Processing Organizational Psychology Science Elective

ME-255 HU-432 EE-409 EE-3401 CS-2510

Engineering Statics for Non-mech. Engineers Ethics for Prof. Managers. and Engineers Senior Design Project III Electromechanical Energy Conversion Object Oriented Programming TOTALS

3-0-3 3-3-4 3-0-3 3-2-4 3-0-3 2-3-3 3-2-4 3-0-3 3-0-3 3-0-3 3-0-3 2-3-3 3-3-4 2-2-3 12-5-14

14-5-16

13-8-16

1Transfer students who have completed 36 quarter credits or 24 semester credits will be waived from OR-100 but will be required to complete OR-301 Transfer Student Orientation 2ECTS

- European Transfer Credit System

Engineering technology courses may not be used to satisfy any electrical engineering program requirements. Accredited by the Engineering Accreditation Commission of the ABET, http://www.abet.org.

Electrical Engineering Study Abroad

IE-423 PH-360 EE-407 EE-3921

139

BACHELOR OF SCIENCE IN ELECTRICAL ENGINEERING German Study-abroad Track V7.0B â€“ FHL Students Vordiplom at FHL JUNIOR YEAR at FHL

Lecture

Practice

Lab

ECTS1

3 4 3 4 0 4 3

0 0 0 0 1 0 0

1 1 1 0 0 2 1

5 5 5 5 3 7 3

Analog Electronics II Principles Of Communications I Radio Frequencies Control Systems I Seminar Praxisprojekt Digital Systems (Hochintegrierte Schaltungen) Humanities I

ECTS 33 Control Systems II Principles of Communication II CAD Programmable Logic Control Microwaves EMC Humanities II

SENIOR YEAR at MSOE EE3921 MS483 MS354

Digital System Design Data Base Management Principles of Accounting HU/SS Electives2

EE3220 EE3202 GE300

Digital Signal Processing Electric and Magnetic Fields Career and Professional Guidance Technical Elective HU/SS Elective2

EE423 EE3401 EE444 HU432 EN241

Applications of Digital Signal Processing Electromechanical Energy Conversion Power Electronics Ethics for Professional Managers and Engineers Speech TOTALS

EE499G 1 ECTS 2

140

Diploma Thesis

3 4 2 2 3 2 3

0 0 0 0 0 0 0

2 1 2 2 1 1 1

6 5 4 4 4 4 3 ECTS 30

3-2-4 2-2-3 3-0-3 3-0-3 3-2-4 3-0-3 0-2-1 3-0-3 3-0-3 2-2-3 3-3-4 3-0-3 3-0-3 2-2-3 11-4-13

12-4-14

13-7-16 0-12-12

- European Transfer Credit System

Of the 6 HU/SS credits, 3 credits must be taken in the Social Science area and 3 credits must be taken in the Humanities area.

Bachelor of Science Electrical Engineering Technology Program Director: Dr. Richard Kelnhofer Office: S-305 Phone: (414) 277-2306 Fax: (414) 277-7465 E-mail: kelnhofer@msoe.edu Website: www.msoe.edu/eecs/et The prominence of electrical and electronic products in today’s society is increasing dramatically. Wireless communications, personal computers, efficient electric vehicles and high-definition television are just a few examples of exciting high-technology areas. Electrical engineering technology graduates are prepared to join industry in these and many other areas.

2+2 Program

Students who have graduated with an AAS degree in electrical/electronics engineering technology from an institution with which MSOE has a transfer agreement in EET, and who meet the EET program admission requirements at MSOE, will be accepted into the EET program with junior standing. These students can follow the +2 EET track at MSOE without any need for prerequisite course work. Those with other AAS degrees, or other college experience, are encouraged to apply. Applicants who are accepted may be required to complete prerequisite course work. A transition plan into the BS-EET program will be developed with an EET program advisor. The transition plan will identify the prerequisites to be fulfilled in order to establish junior standing in the EET program.

Program Goals The goals of the electrical engineering technology program are: • to foster the personal and professional growth of its students. • to produce competent and effective contributors to engineering technology and society as a whole.

Electrical Engineering Technology

The electrical engineering technology (EET) program at MSOE is a "+2 EET" (junior/senior years) program. Based on this design, students first complete an appropriate Associate of Applied Science (AAS) degree program at a two-year college before enrolling in the +2 program at MSOE.

• to provide a path for transfer students and working technicians to applied engineering positions. • to achieve comprehension using an inductive, experience-based learning methodology that unites theory with practice.

141

Program Educational Objectives Electrical Engineering Technology program graduates will: • successfully function in applied engineering positions, demonstrating proficiencies that include problem solving and technical communications skills. • continue to advance their skills through formal and informal activities related to their profession. • exhibit conduct that is ethical and professional, including consideration of the societal and global impact of their professional endeavors.

Program Outcomes Graduates of the electrical engineering technology program will: • be able to unite theory with practice in engineering technology. • have an ability to use modern computer tools and techniques in the solutions of applied engineering problems. • have knowledge of mathematics, the basic sciences and the elements of engineering sciences as they apply to electrical engineering technology. • be capable of developing test procedures, conducting tests, and interpreting experimental data. • be capable of design based on specified requirements and known design techniques. • possess problem-solving skills involving analysis, simulation, laboratory experimentation and teamwork, with application to electrical and electronic components, circuits, and systems. • be proficient in oral and written communication, having the ability to write technical reports and conduct technical presentations of their work. • have the preparation and an understanding of the importance to continue their education, both formally and informally, throughout their careers. • have knowledge of professional and ethical responsibilities as applied to both engineering technology and society as a whole. • have knowledge of economics, humanities, and social sciences. • have knowledge of quality and continuous improvement, and ability to manage their project involvement, demonstrating project- and time-management skills on individual and team projects.

142

The Electrical Engineering Technology (EET) Curriculum The EET program is accessible on both a full- and part-time basis to transfer students. The EET curriculum uses an experience-based learning methodology and, hence, most of the engineering technology and science courses have an associated laboratory. The electrical engineering technology program generally appeals to students who prefer the use of specific examples to help them learn the overall general concepts, and favor the use of physical concepts to clarify mathematics. Students in the EET program typically enter MSOE at the junior level. As students progress through the curriculum, the mathematics and science (physics and chemistry) courses, as well as previous engineering technology courses, lead into the more advanced engineering technology courses. This curricular approach fits well with the experience-based learning style and allows the student to reach and cover many advanced electrical and electronic topics such as:

In addition to the breadth of these electrical topics, which are an integral part of the curriculum, the student completes a technical elective and a three-course senior project sequence in the senior year. The technical elective areas are offered based on student voting in the previous year (in the course GE-300). In the technical elective, students obtain a deeper understanding of the theory and applications in the topical area of the elective. Popular topical areas include analog and digital electronics, computer hardware and software, electronic communications, and industrial electronics and controls. In the senior project, students form teams that each define and complete a significant project. Examples of recent senior projects include: • design of a closed-loop feedback control system for DC remote control cars to detect and control wheel slip. • design of a solar-powered golf cart battery charging system. • design of a wireless A/V switching system for aggregating multiple game consoles. • design of an enhanced “white cane” with tactile feedback using an embedded multidimensional sensor for the visually impaired. • design of an exercise bike that generates energy, and an associated energy storage system. • design of an ice-fishing tip-up system that uses a wireless transmitter at each tip-up and a single receiver that identifies the triggered tip-up.

Electrical Engineering Technology

• electrical and electronic circuit design. • electronic signal representation and application to electronic circuits using Fourier series, Laplace transforms, Fourier transforms and digital signal processing. • electronic communications including transmission lines and data communications. • electromagnetic fields including an introduction to electromagnetic interference and signal integrity. • control of systems using feedback. • use of contemporary software tools and programming. • digital- and microprocessor-based design.

143

FAA Approval The Federal Aviation Administration (FAA) has approved the MSOE EET curriculum, and has approved MSOE as a partnership institution, allowing EET students to participate in FAA internships and EET graduates to be hired through the FAA Collegiate Training Initiative (CTI) program.

Career Opportunities Graduates of the electrical engineering technology program enter a variety of industries, such as: aerospace electronics and controls automation industrial equipment automotive instrumentation communications medical computers power generation and distribution Graduates of the program are inclined to enter industry in positions that involve: • developing, designing or improving components and products. • applications of engineering and technology to new and existing products, such as in applications engineering, field service or technical sales. • manufacturing, testing or quality assurance of products. A few examples of industrial projects that program graduates have been involved with include: • design and control of AC motor drive systems. • establishment of wireless communications services in communities. • design of RF (radio frequency) and microwave electronic circuits. • testing products for electromagnetic interference. • developing software for instrumentation and control. • design or modification of digital- and/or microprocessor-based systems.

144

2 + 2 Transfer Option A 2+2 transfer opportunity has been developed in cooperation with the Wisconsin Technical College System and with the College of Lake County in Illinois. Graduates from an Associate of Applied Science degree program in Electrical Engineering Technology (who meet specific conditions listed later in this section) at several Wisconsin and Illinois two-year colleges may transfer into the junior year of MSOE’s Bachelor of Science in Electrical Engineering Technology (BS-EET) program. This opportunity provides associate degree graduates with the education and skills they need for applied engineering positions in today’s fast-paced electronics industry. It also enables them to extend their education with study toward a BS-EET degree without losing credit for work already completed at the two-year college. This 2 + 2 program enables an EET associate degree graduate from a college in the Wisconsin Technical College System to be admitted with junior status into MSOE’s BS-EET program if the graduate meets the following conditions: • has successfully completed all courses in the Associate of Applied Science in Electrical Engineering Technology program with a grade of “C” or better (not C-) in each course;

• meets the MSOE admission requirements for transfer students into the BSEET program, with a cumulative GPA of 2.75 or greater for full acceptance (GPA of 2.50 to 2.74 for acceptance on probationary status). Consult the EET program Web page on the MSOE website, www.msoe.edu/eecs/et/2plus2.shtml, for a current list of transfer agreements with colleges in the Wisconsin Technical College System and in Illinois.

Advice for Other Transfer Students Students whose previous formal education has been gained through a technical, community or junior college are required to consult with the Enrollment Management Department at MSOE about credit transfer. Consultation with an electrical engineering technology program advisor is required to plan a transition schedule around previously completed and qualifying academic experience. A student who plans to transfer from another college into the program at some future date is encouraged to correspond with the Enrollment Management Department at MSOE. The student will be assisted in coordinating, as closely as possible, courses to be taken at another institution of higher education with those courses that are part of the graduation requirements at MSOE. The MSOE philosophy of individual attention to each student is a major factor in making a successful academic transition possible.

Electrical Engineering Technology

• has successfully completed any other specified courses, per the transfer agreement at the technical college, with a grade of “C” or better (not C-) in each course; and

145

JUNIOR YEAR

BACHELOR OF SCIENCE ELECTRICAL ENGINEERING TECHNOLOGY Model Full-time Track - V7.5 ------------QUARTER-----------1 2 3

AE-1311 EG-1260 ET-3051 MA-227 OR-307S CH-310 SS-461

Introduction to CAD1 Engineering Graphics - Visualization1 Signals, Circuits, and Systems I Differential Equations for Technologists Transfer Orientation Seminar Applied Chemistry1 Organizational Psychology1

EN-241 ET-3001 GE-300 HU-100 IE-423 ET-3910

Speech1 Transient Circuit Analysis Career and Professional Guidance Contemporary Issues in the Humanities1 Engineering Economy1 Embedded Systems

ET-3060 ET-3100 ET-3201 ET-3900

Signals, Circuits, and Systems II Electronic Circuit Design Electromagnetic Field Concepts Design of Logic Systems TOTALS

SENIOR YEAR ET-4021 ET-4261 ET-4601 ET-4620 ET-4710

Senior Project I Transmission Lines Quality in Electronic Systems Data Communications Feedback Control Systems and Circuits

ET-4022 ET-4250 MS-4801 MT-4501

Senior Project II Electromagnetic Field Applications Project Management1 Mechanics Elective (HU)1 Elective (Technical-EET)2

ET-4023 HU-432 MT-4511 PH-361

Senior Project III Ethics for Professional Managers and Engineers1 Thermodynamics and Heat Transfer Physics of Materials Elective (HU)1 TOTALS

1 These 2

1-1-1 0-2-1 3-2-4 3-0-3 1-0-0 3-2-4 3-0-3 2-2-3 3-2-4 0-2-1 3-0-3 3-0-3 3-2-4 4-0-4 3-2-4 4-0-4 3-2-4 14-7-16

14-8-18

14-4-16

0-2-1 3-2-4 3-0-3 4-0-4 3-2-4 0-2-1 3-2-4 3-0-3 3-0-3 3-0-3 2-2-3 2-2-3 3-0-3 3-0-3 3-2-4 3-0-3 13-6-16

14-6-17

courses are also offered in different quarters. Consult with an EET advisor for alternative scheduling.

This technical elective must be from the approved EET Technical Electives list.

Accredited by the Technology Accreditation Commission of the ABET, http://www.abet.org.

146

14-4-16

FIRST YEAR

BACHELOR OF SCIENCE ELECTRICAL ENGINEERING TECHNOLOGY Model Part-time Track - V7.5 ------------QUARTER-----------FA WI SP SU

ET-3051 MA-227 OR-307S

Signals, Circuits, and Systems I Differential Equations for Technologists Transfer Orientation Seminar

EN-241 ET-3001

Speech1 Transient Circuit Analysis

ET-3060 ET-3100

Signals, Circuits, and Systems II Electronic Circuit Design

IE-423

2-2-3 3-2-4 4-0-4 3-2-4

Engineering Economy1 TOTALS

SECOND YEAR CAD1

Introduction to Applied Chemistry1 Engineering Graphics - Visualization1

HU-100 ET-3910

Contemporary Issues in the Humanities1 Embedded Systems

ET-3201 ET-3900

Electromagnetic Field Concepts Design of Logic Systems

SS-461

Organizational Psychology1 TOTALS

THIRD YEAR Transmission Lines Data Communications

3-0-3 7-2-7

5-4-7

7-2-8

3-0-3

1-1-1 3-2-4 0-2-1 3-0-3 3-2-4 4-0-4 3-2-4 3-0-3 4-5-6

6-2-7

7-2-8

3-0-3

3-2-4 4-0-4

ET-4250 Electromagnetic Field Applications GE-300 Career and Professional Guidance MT-4501 Mechanics

3-2-4 0-2-1 3-0-3

MT-4511 Thermodynamics and Heat Transfer PH-361 Physics of Materials

3-0-3 3-2-4 3-0-3

Elective (HU)1 TOTALS

FOURTH YEAR ET-4021 ET-4601 ET-4710

Senior Project I Quality in Electronic Systems Feedback Control Systems and Circuits

ET-4022 MS-4801

Senior Project II Project Management1 Elective (Technical-EET)2

ET-4023 HU-432

Senior Project III Ethics for Professional Managers and Engineers1

7-2-8

6-4-8

6-2-7

3-0-3

0-2-1 3-0-3 3-2-4 0-2-1 3-0-3 2-2-3 2-2-3 3-0-3

Elective (HU)1 TOTALS

Electrical Engineering Technology

AE-1311 CH-310 EG-1260

ET-4261 ET-4620

3-2-4 3-0-3 1-0-0

3-0-3 6-4-8

5-4-7

5-2-6

3-0-3

These courses are also offered in different quarters. Consult with an EET advisor for alternative scheduling. This technical elective must be from the approved EET Technical Electives list. Accredited by the Technology Accreditation Commission of the ABET, http://www.abet.org. 1 2

147

Bachelor of Science Software Engineering Program Director: Dr. Mark Sebern Office: L-331 Phone: (414) 277-7213 Fax: (414) 277-7465 E-mail: sebern@msoe.edu Website: www.msoe.edu/eecs/se Software engineering applies engineering concepts, techniques and methods to the development of software systems. A software engineering program develops engineering professionals with a mastery of software development theory, practice and process. Software engineering is based on computer science in the same way other engineering disciplines are based on physical or life sciences. However, it adds an emphasis on issues of process, design, measurement, analysis and verification, providing a strong foundation in engineering principles and practice as applied to software development. Software engineering students gain knowledge and skill in all aspects of the software development life cycle, including requirements elicitation and analysis, software architecture, design, construction and verification. They learn to work within and to continuously improve a defined software development process, with the aim of producing high-quality software predictably and efficiently. To provide a basis for this software engineering practice and process, students are grounded in the fundamentals of computer science, including discrete mathematics, data structures, algorithms, computer organization and operating systems.

148

Program Objectives The software engineering program at MSOE implements the university’s mission by facilitating the personal and professional growth of its students so they can become effective contributors to the engineering profession and to society as a whole. In their work as software engineering professionals, graduates will: • be able to unite theory with practice, be prepared and motivated to engage in lifelong learning and have a solid foundation in mathematics and science. • be productive practitioners skilled in applying engineering process and practice to software components and systems. • be proficient in oral and written communication, and effective in team work.

Program Outcomes In support of the program objectives, graduates of the program must demonstrate they have: • an ability to apply knowledge of mathematics, science, and engineering. • an ability to apply continuous and discrete mathematics, probability and statistics, computer science, software engineering practices and processes.

• an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability. • an ability to perform detailed and architectural design of software components and systems while satisfying functional and non-functional requirements. • an ability to function on multidisciplinary teams. • an ability to identify, formulate, and solve engineering problems. An ability to elicit and document software requirements, and to propose and evaluate designs and processes to meet them.

Software Engineering

• an ability to design and conduct experiments, as well as to analyze and interpret data. An ability to design prototypes to elicit requirements, design tests to evaluate system performance, propose and evaluate process changes based on individual and team metrics.

• an understanding of professional and ethical responsibility. • an understanding of the critical role played by software systems, the professional responsibilities of software engineers, and ethical issues that may be encountered in engineering practice. • an ability to communicate effectively. • the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context. • a recognition of the need for, and an ability to engage in life-long learning. • a knowledge of contemporary issues. An awareness of trends in the software engineering discipline and of societal issues that affect software engineering practice. • an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice. An ability to use modern software engineering tools, programming languages and environments, project planning and tracking systems, specification and verification techniques. 149

Curriculum MSOE prides itself on uniting theory with industry practice in both classroom and laboratory activities. Software practice and process are emphasized throughout the curriculum. The software development laboratory provides experience in various roles, working on large-scale projects using software engineering tools and techniques. In the senior design sequence, software engineering students work in teams to complete a major project, in some cases collaborating with students in other disciplines. Often project ideas originate in industry, where many students work as interns. Software is a critical component of many different types of products and systems, in fields such as consumer electronics, transportation, health care, communications, finance, manufacturing, entertainment, government and education. Computer networks and mobile computing devices play a major role, and these technologies are incorporated throughout the software engineering curriculum. Since many software engineers work with computers that play a critical role in products such as avionics, medical devices and industrial controls, the software engineering program also includes courses that prepare graduates to develop these “real time” computing systems. Because software development requires collaboration, communication skills and teamwork are critically important. Course work and projects provide many opportunities to develop proficiency in writing, oral presentation, collaboration and project management. Elective courses offer software engineering students the opportunity to pursue study in areas such as: • • • •

150

Network and information security Computer game development and artificial intelligence Human-computer interaction and user interface technologies Graphics and image processing

Software Engineering Electives V3.0 Credit in Quarter Hours

Wireless Sensor Networks Embedded Systems III Embedded Systems IV Networking I Computer Graphics Advanced Computer Graphics Distributed and Cloud Computing Digital Image Processing Artificial Intelligence Mobile Application Development Information Security Advanced Digital Design Independent Study Dynamic Systems Digital Signal Processing Control Systems Fuzzy Sets and Applications Neural Networks Introduction to Game Development Formal Methods Human-Computer Interaction Independent Study Mobile Application Development Developing Secure Software Network Security Tools and Practices

3 4 3 3 4 3 3 3 3 3 3 3 3 3 4 4 3 3 3 3 3 3 3 3 3

Software Engineering

CE-3200 CE-3910 CE-4920 CE-4950 CS-321 CS-421 CS-4230 CS-4802 CS-4881 CS-4910 CS-4920 CS-493 CS-499 EE-3050 EE-3220 EE-3720 EE-481 EE-484 SE-3250 SE-3811 SE-3830 SE-499 SE-4910 SE-4930 SE-4940

151

BACHELOR OF SCIENCE SOFTWARE ENGINEERING Model Full-time Track - V3.0 FRESHMAN YEAR CE-1900 EN-131 HU-100 MA-136 OR-100 SE-1011

Digital Logic I: Combinational Systems Composition Contemporary Issues in the Humanities Calculus for Engineers I Freshman Orientation1 Software Development I

CH-200 EN-132 MA-137 SE-1021

Chemistry I Technical Composition Calculus for Engineers II Software Development II

CS-2852 EN-241 MA-231 MA-262 PH-2010

Data Structures Speech Calculus for Engineers III Probability and Statistics Physics I - Mechanics TOTALS

------------QUARTER------------1 2 3 2-2-3 3-0-3 3-0-3 4-0-4 1-0-0 3-2-4 3-2-4 3-0-3 4-0-4 3-2-4 3-2-4 2-2-3 4-0-4 3-0-3 3-3-4 16-4-17

13-4-15

15-7-18

SOPHOMORE YEAR CS-2910 MA-235 PH-2020 SE-2030 SS-461

Network Protocols Differential Equations for Engineers Physics II - Electromagnetism and Optics Software Engineering Tools and Practices Organizational Psychology

CS-2710 MA-2310 MA-232 SE-2800 SE-2811

Computer Organization Discrete Mathematics I Calculus for Engineers IV Software Engineering Process I Software Component Design

PH-2030 SE-2040 SE-2832 SE-2840

Physics III - Thermodynamics and Quantum Physics Software Development III Introduction to Software Verification Web Application Development TOTALS

152

2-2-3 4-0-4 3-3-4 2-2-3 3-0-3 3-0-3 3-0-3 3-0-3 2-2-3 3-2-4

14-7-17

3-3-4 3-2-4 3-2-4 3-2-4 14-4-16

12-9-16

JUNIOR YEAR CS-386 MA-3320 MA-383 SE-3821

Introduction to Database Systems Discrete Mathematics II Linear Algebra Software Requirements and Specification Elective (HU/SS)2

CS-3844 OR-402 SE-3191 SE-380 SE-3800

Operating Systems Professional Guidance Software Development Laboratory I Principles of Software Architecture Software Engineering Process II

CS-3851 SE-3192 SE-3910

Algorithms Software Development Laboratory II Real-Time Systems Elective (Program)2 Elective (HU/SS)2 TOTALS

SENIOR YEAR Ethics for Professional Managers and Engineers Software Development Laboratory III Senior Design Project I Elective (Program)2 Elective (HU/SS)2

IE-423 SE-401

Engineering Economy Senior Design Project II Elective (Program)2 Elective (Math/Science)2 Elective (HU/SS)2

SE-402

Senior Design Project III Elective (Program)2 Elective (Business)2 Elective (HU/SS)2 Elective (Free)2 TOTALS

2-2-3 3-0-3 3-0-3 3-2-4 3-0-3 3-0-3 1-0-1 2-4-4 3-2-4 3-0-3 3-2-4 2-4-4 3-3-4 3-0-3 3-0-3 14-4-16

12-6-15

14-9-18

3-0-3 2-4-4 2-2-3 3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 3-0-3 3-0-3 13-6-16

14-2-15

1 Transfer

students who have completed 36 quarter or 24 semester credits will be waived from OR-100, but will be required to complete OR-301 Transfer Student Orientation.

2 There

are 36 credits of elective subjects in the software engineering program that must be taken as follows:

Software Engineering

HU-432 SE-3193 SE-400

------------QUARTER-----------7 8 9

• 15 credits of humanities and social sciences: 6 credits of humanities (HU), 6 credits of social sciences (SS), and 3 credits of humanities or social sciences • 12 credits of approved program electives • 3 credits of an approved business elective • 3 credits of an approved math/science elective • 3 credits of an upper-division course from any area Engineering technology courses may not be used to satisfy requirements of the software engineering curriculum. Students in Air Force ROTC may make the following substitutions in the software engineering program: AF-300 for the business elective and AF-401 for SS-455 (a social science elective). Accredited by the Engineering Accreditation Commission of ABET, http://www.abet.org.

153

General Studies Department Main Office: Grohmann Museum, GM218 Phone: (414) 277-7351 Fax: (414) 277-7462 Website: www.msoe.edu/gen_st The General Studies Department is responsible for administering and providing core courses for the Bachelor of Arts/Science in Technical Communication degree. In addition, the department is primarily responsible for offering courses in the humanities, social sciences, English, communication and engineering graphics. These offerings include both fundamental and advanced courses to develop and enrich students so they might become more sensitive to and fully aware of themselves and others.

Faculty: Chairman: Dr. R. David Kent Department Administrative Assistant: Rose Didier Professor: Marvin L. Bollman Associate Professors: Gary C. Boelkins, Dr. Jon K. Borowicz, James W. Friauf, Dr. David Howell, Dr. Patrick Jung, Dr. R. David Kent, Dr. Carma Stahnke, Dr. Katherine Wikoff Assistant Professors: Dr. Michael Carriere, Dr. Alicia Domack, Dr. Jennifer Farrell, Dr. Jan Fertig, Dr. Nadya Shalamova Adjunct Professors: Patrick J. Coffey, Dr. Cheryl A. Maurana, Joseph P. Meloy, Leonard A. Vanden Boom, Dr. William Wiener Adjunct Associate Professors: Dr. Donald Ashby, Dianne L. Bender, Sara L. Cissna, Virginia K. Reinmuller, Dr. Harry Rollings III Adjunct Assistant Professors: Elizabeth A. Albrecht, Dr. John Penglase, Lisa Rivero, Mary Spencer Lecturers: Michael Bell, Dr. Elizabeth Clark, Denise Du Vernay, Margaret Dwyer, Dr. Richard Edwards, Timothy Gaynor, Cynthia Kotlarek, Amy Murre, Mary Jo Wellenstein, Mark Zimmermann Professors Emeriti: Dr. Roger J. Frankowski, Veronica S. Haggerty, Robert Kleppin, Susannah P. Locke, Mary Ann Perdue, Dr. Constantin Popescu, Judith L. Steininger Adjunct Professor Emeritus: Kenneth McAteer

154

General Studies Electives Humanities and Social Sciences Electives (HU/SS) â€“ All are three-credit classes Language Series HU-410 HU-411 HU-412 HU-413 HU-414

Foreign Language I Foreign Language II Foreign Language III Foreign Language IV Foreign Language V

Literature Series HU-420 HU-4200 HU-421 HU-422 HU-423 HU-424 HU-425 HU-426 HU-427 HU-428 HU-429

Classical Derivatives Linguistics: Scientific Study of Language Literary Genres British Literature American Literature Science Fiction Contemporary Literature Survey of Third World Literature Classics in Eastern Literature Classics in Western Literature Literature of American Minorities

HU-430 HU-4300 HU-431A HU-431B HU-433 HU-434 HU-435 HU-436 HU-4370 HU-438 HU-439

Epistemology Philosophy of Education Formal Logic Informal Logic Philosophy Existentialism Philosophy of Religion Metaphysics Social and Political Philosophy Aesthetics Philosophy of Technology

General Studies

Philosophy Series

History Series HU-440 HU-441 HU-442 HU-443 HU-445 HU-446 HU-447 HU-448 HU-449

Global History I-World to 1500 Global History II-World Since 1500 Modern European History Russian History United States History I United States History II History of the Middle East World War II German History

155

Fine Arts Series HU-485 HU-486 HU-487 HU-488 HU-489

Fine Arts Theater Arts Visual Arts Music History and Appreciation Film Studies

Political Science Series SS-453 SS-454 SS-455 SS-456 SS-457 SS-458

American Government Political Science International Relations Public Policy in Urban America Current Affairs Contemporary European Society and Government

Psychology Series SS-460 SS-462 SS-464 SS-466 SS-467

General Psychology Developmental Psychology Human Factors in Engineering and Design Abnormal Psychology Social Psychology

Sociology Series SS-415 SS-471 SS-472 SS-473 SS-474 SS-475 SS-476

Cultural Dimensions Sociology Social Problems World Societies The Family Addictions and Compulsions Death and Dying

Other Electives HU-494 HU-495 SS-492 SS-495

156

Creative Thinking Humanities Selected Studies Educational Methods Social Science Selected Studies

Foreign Language Courses at MSOE Enrollment in Foreign Language Courses 1) A student may not enroll in a foreign language course if that foreign language is spoken in the student’s home. 2) A student who has had one year of a specific language in high school may enroll in the introductory language course. Students having two years of a specific language in high school must begin at the second language course. For each additional year of language in high school, a student must begin at a correspondingly higher level. Fulfillment of HU Elective Credit 1) Students enrolling in a beginning language course (designated by the Roman numeral “I”) must enroll in and successfully complete two quarters of language courses in order to receive HU credit for the beginning course. If a student were to take German I, for example, but not German II, the three credits would be tabulated in the student’s grade point average, but the credit would not apply toward the fulfillment of HU electives. 2) A student who is placed in “Foreign Language II” or “Foreign Language III” will receive three credits of HU elective credit for that course without completing another sequential course. 3) A student placed in “Foreign Language II” or “Foreign Language III” will not receive credit for more fundamental language courses.

Wisconsin Lutheran College (WLC) professors teach an intensive ESL curriculum on MSOE’s campus. The intensive ESL program is for students with low- to intermediate-English proficiency who have not obtained the English scores required for full admission to MSOE. Students who qualify for conditional admission to MSOE will be given the opportunity to study in the WLC intensive ESL program at MSOE. Please contact the Admission Office for information about applying.

General Studies

Intensive English-as-a-Second-Language (ESL ) Program

four classes each quarter; two will be ESL courses and two will be related to the student’s major. Students must pass their ESL courses with a grade of “CD” or better. Failure to do so will result in the student being subject to suspension from the university and will require a written appeal in order to continue (see page 30). After students have satisfactorily completed all six ESL courses and obtained satisfactory grades in all the MSOE courses taken during their first year at MSOE, they will be able to continue studying in their major. At the start of the second year, and for each year thereafter, students can take a full load of major classes. However, please note that with the ESL component, it will take five years to complete the student’s degree program. ESL Program Goals The goal of the ESL program is to bridge the gap between the English language skills the students possess and the skills they will need to be academically successful at MSOE. Specifically, • to improve the students’ academic skills in reading, writing, listening and speaking. • to provide the students with a foundation in culture and cultural values, ethics, integrity and social responsibility from an American perspective. • to provide a climate that fosters independent thinking and personal development.

158

Bachelor of Science or Bachelor of Arts Technical Communication Program Director: Dr. Nadya Shalamova Office: GM-202 Phone: (414) 277-2331 Fax: (414) 277-7462 E-mail: shalamova@msoe.edu Website: www.msoe.edu/gen_st/tc The field of technical communication is a logical extension of the rapid growth in technology. Individuals in this field creatively express ideas and accomplishments of industry, business and other institutions through a variety of instructional and procedural materials, business and grant proposals, Web and multimedia tools. Consequently, individuals in this field have aptitude and education in both the humanities and the sciences and are able to relate readily to people on many levels. The degree in technical communication at MSOE is designed to provide students with: • a core liberal arts education in humanities and social sciences. • courses in the major area which will allow students to design and produce both written documents and oral presentations for business, industry and other institutions. • literacy in basic engineering, business, mathematics, physical science and computers.

Program Goals • develop, design and distribute written documents and oral presentations conveying technical material for business, industry and other institutions. • understand communication theory in order to assist business, industry and other institutions with developing management tools related to the flow of information within an organization. • act as a link between the expertise of technical personnel and the needs of the various audiences of industry, business and other institutions. • pursue graduate study in areas related to communication. Potential employment in a wide variety of fields is available to graduates of the program because of the scope of the degree. Typical employment opportunities for graduates include engineering firms, government, information technology, hitech manufacturing, financial, pharmaceutical, medical device industries, public relations firms and mass media (television or radio).

Technical Communication

The primary goals of the program are to produce graduates who are able to:

The bachelor of arts degree requires five quarters of a foreign language. A bachelor of science degree option is available in this program. Upon consultation with the program director, a student may choose to select 15 credits of technical electives in place of 15 credits of a foreign language, which would result in the bachelor of science degree.

159

BACHELOR OF SCIENCE TECHNICAL COMMUNICATION Model Full-time Track - V4.6

FRESHMAN YEAR

------------QUARTER------------1 2 3

EN-131 MA-126 MT-1201 OR-100 TC-151 TC-1111

Composition Trigonometry Materials and Processes Freshman Orientation1 Theory of Human Communication Introduction to Technical Communication

CH-103 EN-132 MA-127 MS-184 HU-100

Principles of Chemistry Technical Composition College Algebra II Introduction to Computer Methods and Applications Contemporary Issues in the Humanities

EG-103 EN-241 HU-431B MS-221 TC-172

Technical Drawing and Visualization Speech Informal Logic Microeconomics Desktop Publishing TOTALS

3-0-3 4-0-4 3-0-3 1-0-0 3-0-3 3-0-3

3-2-4 2-2-3 3-0-3 3-0-3 2-2-3 17-0-16

16-2-17

13-6-16

SOPHOMORE YEAR HU-440 MS-273 MS-322 MS-361 SS-453

Global History I (The World to 1500) Web Site Design Macroeconomics Marketing American Government

EN-342 HU-441 PH-113 TC-261

Group Discussion Global History II (The World Since 1500) College Physics I Research Methods Elective (HU/SS)2

HU-494 MS-331 MT-151 TC-242

Creative Thinking Business Law Application of Mechanical Engineering Technology Persuasive Speech Elective (HU/SS)2 TOTALS

160

3-2-4 3-0-3 4-0-4 3-0-3 3-0-3

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-2-4 3-0-3 3-0-3

15-0-15

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 15-2-16

15-0-15

JUNIOR YEAR ET-351 PH-123 TC-321 TC-453

Survey of Communication Circuits College Physics II Visual Design Techniques Intercultural Communication Elective (Technical)

ET-1520 SS-461 TC-332 TC-351

Electric Circuits Organizational Psychology Advanced Technical Writing Organizational Communication Elective (HU/SS)2

MA-340 TC-342 TC-381 TC-452 IE-192

Business Statistics Professional Presentation Techniques Marketing Communication Interpersonal Communication Computer Applications in Industrial Engineering TOTALS

SENIOR YEAR

Survey of Biomedical Engineering Ethics for Professional Managers and Engineers Principles of Accounting Writing and Editing for Publication Mass Communication Knowledge Management

TC-499

Internship Elective (HU/SS)2 Elective (Technical Communication)2 Elective (Technical)3 Elective (Technical)3

OR-402

Professional Guidance Elective (Management Systems)2 Elective (Technical)3 Elective (Technical)3 Cultural Dimensions Project Management

SS-415 MS-4801

TOTALS

2-2-3 3-2-4 3-2-4 3-0-3 3-0-3 3-2-4 3-0-3 3-0-3 3-0-3 3-0-3 4-0-4 2-2-3 3-0-3 3-0-3 2-0-2 14-6-17

15-2-16

14-2-15

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3

6-0-6 3-0-3 3-0-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 18-0-18

18-0-18

16-0-16

1 Transfer students who have completed 36 quarter or 24 semester credits will be waived from OR-100, but will be required to satisfactorily complete OR-301 Transfer Student Orientation. 2 There

are 33 credits of electives in the B.S. in technical communication program, which must be taken as follows:

•

12 credits from the field of humanities and social sciences (HU/SS): 6 credits from the humanities, 6 credits from the social sciences.

•

3 credits from management systems.

•

3 credits of technical communication elective credits (includes EN-432 Business Communication and TC-495 courses).

•

15 credits from any of the computer science, engineering, engineering technology, science, mathematics, management systems or technical communication electives.

Technical Communication

BE-352 HU-432 MS-354 TC-432 TC-451 TC-433

------------QUARTER-----------7 8 9

3 The

difference between the B.S. and B.A. degrees in technical communication is that students in the B.A. program take 15 credits of a foreign language in place of 15 credits of technical electives.

161

BACHELOR OF ARTS TECHNICAL COMMUNICATION Model Full-time Track - V4.5* ------------QUARTER------------1 2 3

FRESHMAN YEAR EN-131 MA-126 MT-1201 OR-100 TC-151 TC-1111

Composition Trigonometry Materials and Processes Freshman Orientation1 Theory of Human Communication Introduction to Technical Communication

CH-103 EN-132 MA-127 HU-100

Principles of Chemistry Technical Composition College Algebra II Contemporary Issues in the Humanities Elective (HU/SS)2

EG-103 EN-241 MS-221 TC-172 MS-184

Technical Drawing and Visualization Speech Microeconomics Desktop Publishing Introduction to Computer Methods and Applications TOTALS

3-0-3 4-0-4 3-0-3 1-0-0 3-0-3 3-0-3 3-2-4 3-0-3 4-0-4 3-0-3 3-0-3

17-0-16

16-2-17

13-6-16

SOPHOMORE YEAR HU-440 MS-273 MS-322 MS-361 HU-410

Global History I (The World to 1500) Web Site Design Macroeconomics Marketing Foreign Language I

EN-342 HU-441 PH-113 TC-261 HU-411

Group Discussion Global History II (The World Since 1500) College Physics I Research Methods Foreign Language II3

HU-494 MS-331 MT-151 HU-431B HU-412

Creative Thinking Business Law Application of Mechanical Engineering Technology Informal Logic Foreign Language III3 TOTALS

162

3-2-4 2-2-3 3-0-3 2-2-3 3-0-3

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-2-4 3-0-3 3-0-3

15-0-15

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 15-2-16

15-0-15

JUNIOR YEAR PH-123 TC-321 TC-453 HU-413 TC-433

College Physics II Visual Design Techniques Intercultural Communication Foreign Language IV3 Knowledge Management

ET-1520 MA-340 TC-332 TC-351 HU-414

Electric Circuits Business Statistics Advanced Technical Writing Organizational Communication Foreign Language V3

TC-242 TC-342 TC-381 TC-452

Persuasive Speech Professional Presentation Techniques Marketing Communication Interpersonal Communication Elective (HU/SS)2 Computer Applications in Industrial Engineering

IE-192

TOTALS

SENIOR YEAR Survey of Biomedical Engineering Survey of Communication Circuits Ethics for Professional Managers and Engineers Principles of Accounting Writing and Editing for Publication Mass Communication

SS-453 TC-499

American Government Internship Elective (Technical Communication)2 Elective (HU/SS)2

OR-402 SS-461

Professional Guidance Organizational Psychology Elective (Management Systems) Elective (HU/SS)2 Cultural Dimensions Project Management

SS-415 MS-4801

TOTALS

3-2-4 3-2-4 3-0-3 3-0-3 3-0-3 3-2-4 4-0-4 3-0-3 3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 3-0-3 2-0-2 15-4-17

16-2-17

3-0-3 2-2-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 6-0-6 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 17-2-18

15-0-15

16-0-16

1Transfer

students who have completed 36 quarter or 24 semester credits will be waived from OR-100, but will be required to satisfactorily complete OR-301 Transfer Student Orientation.

2There

are 18 credits of electives in the B.A. in technical communication program, which must be taken as follows:

•

12 credits from the field of humanities and social sciences: 6 credits from the humanities, 6 credits from the social sciences.

•

3 credits from management systems.

•

3 credits of technical communication elective credits (includes EN-432 Business Communication and TC-495 courses).

Technical Communication

BE-352 ET-351 HU-432 MS-354 TC-432 TC-451

------------QUARTER-----------7 8 9

3Students

may receive a BS degree by substituting 15 technical elective credits for the required foreign language. The difference between the BS and BA degrees in Technical Communication is that students in the BA program take 15 credits of a foreign language in place of 15 credits of technical electives.

*Students in the Air Force ROTC may take the following substitutions in the above program: AF-300 and AF-302 for Technical Electives; AF-301 for SS 461; AF-400 for SS-471; AF-401 for SS-455; and AF-402 for MS-331. Other AF courses must be taken in addition to the above program and do not count as electives.

163

Bachelor of Science Technical Communication – 2 + 2 Degree The 2 + 2 degree program in technical communication offered by MSOE is designed for individuals with an associate degree in any field. This program is an excellent opportunity for those individuals with technical aptitude whose career goals are in fields involving communication skills – for example, human resource management, Web design, usability testing, software documentation, technical sales, knowledge management, technical training, proposal writing, project management, e-business, marketing, public relations, journalism, technical writing and information technology. The 2 + 2 program also will be attractive to individuals performing technical writing functions in their careers but lacking an academic background in writing and communication. Graduates with a two-year associate degree in any field may transfer with junior standing and expect two full years of advanced credit. The Bachelor of Science degree in Technical Communication at MSOE has three academic components: • course work in written, oral and visual technical communication • course work in the humanities and social sciences • course work in business, science and engineering technology The 2+2 program is offered to students in four different versions, each of which is designed to complement the academic component emphasized in the associate degree. Plan A emphasizes course work in technical communication, humanities and social science. This plan is designed for students entering the 2+2 program with an A.A.S. degree who have already taken course work in business, science and engineering technology. Plan B* emphasizes course work in the humanities and social sciences, as well as in business, science and engineering technology. This plan is designed for students entering with an A.A.S. degree in technical communication. Plan C* emphasizes course work in technical communication, business, science and engineering technology. This plan is designed for students entering with an associate of arts degree. Plan D* emphasizes courses in technology and interpersonal communication and is created for students entering the program with the first two years of course work in the B. A. in media and communications at MAHE-MANIPAL in Dubai. In some cases, advanced undergraduate standing in technical course work can be considered in lieu of an associate degree. In all cases, course substitutions will be made when necessary to avoid duplication of course work taken to complete the associate degree requirements. Prerequisite subjects may also be scheduled if needed. *For Plan B, C or D track, contact the technical communication program director.

164

BACHELOR OF SCIENCE TECHNICAL COMMUNICATION 2+2 DEGREE PLAN A1 Model Full-time Track - V4.5 ------------QUARTER-----------THIRD YEAR 1 2 3 EN-241 HU-440 MS-221 OR-301 SS-453 TC-151 TC-1111

Speech Global History I (The World to 1500) Microeconomics Transfer Student Orientation American Government Theory of Human Communication Introduction to Technical Communication

HU-100 EN-132 HU-441 OR-402 TC-261 TC-351

Contemporary Issues in the Humanities Technical Composition Global History II (The World Since 1500) Professional Guidance Research Methods Organizational Communication

HU-431B MS-331 SS-415 TC-172 TC-242 TC-452

Informal Logic Business Law Cultural Dimensions Desktop Publishing Persuasive Speech Interpersonal Communication TOTALS

FOURTH YEAR Principles of Accounting Visual Design Techniques Writing and Editing for Publication Mass Communication Intercultural Communication

EN-342 HU-432 TC-332 TC-499 MS-322

Group Discussion Ethics for Professional Managers and Engineers Advanced Technical Writing Internship Macroeconomics

HU-494 SS-461 TC-342 TC-381

Creative Thinking Organizational Psychology Professional Presentation Techniques Marketing Communication Elective (HU/SS)2 Elective (HU/SS)2 TOTALS

3-0-3 3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 18-2-18

16-0-16

17-2-18

3-0-3 3-2-4 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 6-0-6 3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 3-0-3 3-0-3 15-2-16

18-0-18

17-2-18

Technical Communication

MS-354 TC-321 TC-432 TC-451 TC-453

2-2-3 3-0-3 3-0-3 1-0-0 3-0-3 3-0-3 3-0-3

1Prerequisite for entrance into this program is an associate degree or the equivalent in applied science business or science. Students transfer with junior standing and can expect a full two years of advanced credit. In the majority of cases subjects if needed may be scheduled with added time for completion of the degree. Also course substitutions will be made when necessary to avoid duplication of course work taken to complete associate degree requirements. 2The

HU/SS electives must be taken as one HU and one SS.

165

Minor in Technical Communication A student enrolled in a degree program at MSOE may also earn a Minor in Technical Communication. The design of the course of study is to produce a graduate skilled in the specific discipline and evidencing competence in the art of communication. Such a graduate would be attractive to business, industry or government since he/she would possess two highly important talents. The Minor in Technical Communication requires a minimum of 26 quarter credits in English or technical communication*. The following courses or their equivalents are required in the minor: EN-131 EN-132 EN-241

Composition Technical Composition Speech

Six other technical communication or English courses are requiredâ€”with at least one class taken from each of the following groups: Theory TC-151 TC-351 TC-451 TC-453 Speaking EN-342 EN-441 TC-242 TC-342 TC-452

Theory of Human Communication Organizational Communication Mass Communication Intercultural Communication Group Discussion Professional Presentation Techniques (Only AE or CM students may take this) Persuasive Speech Professional Presentation Techniques (Students taking EN-441 may not take TC-342) Interpersonal Communication

Writing TC-332 EN-432 TC-432

Advanced Technical Writing Business Communications Writing and Editing for Publication

Applications TC-172 TC-261 TC-321 TC-381 TC-433 TC-498

Desktop Publishing Research Methods Visual Design Techniques Marketing Communication Knowledge Management Technical Communication Practicum

* In special cases, the TC program director may approve substitutions.

166

Minor in German Studies A student enrolled in a degree program at MSOE may also earn a Minor in German Studies. Upon completion of this course of study, students would have solid communications skills in German and a strong understanding of German culture and history. A graduate with a Minor in German Studies would be attractive to business and/or industry because he/she would possess the marketable skill of a language other than English. Total required credits vary from 18 to 24, depending upon the student’s German language proficiency upon entering this course of study. General Requirements • A student who has had zero to one years of high school German is required to take the entire first-tier beginning German sequence, the entire second-tier intermediate sequence, and two third-tier HU/SS electives. Total courses/credits: 8/24. • A student who has had two years of high school German is required to take German II and III (HU-411G and -412G) of the first-tier beginning German sequence, the entire second-tier intermediate sequence, and three third-tier HU/SS electives. Total courses/credits: 8/24. • A student who has had three years of high school German is required to take German III (HU-412G) of the first-tier beginning sequence, the entire secondtier intermediate sequence, and three third-tier HU/SS electives. Total courses/credits: 7/21.

If a student does not test out of German III and has had four years of high school German, he/she is required to take German III (HU-412G) of the firsttier beginning sequence, the entire second-tier intermediate sequence and three third-tier HU/SS electives. Total courses/credits: 7/21. • A student who has had four years of high school German AND has received a 4 or 5 in AP German will receive credit for German I (HU-410G) and German II (HU-411G). German III (HU-412G) will be waived. To earn the minor, this student is required to take the entire second-tier intermediate sequence and three third-tier HU/SS electives. Total courses/credits: 6/18.

German Studies Minor

• A student who has had four years of high school German has the option of testing out of German III (HU-412G). To test out, a student must take a proficiency exam through the General Studies Department. This student must receive a score of 81% or above to be excused from taking German I, II and III. Although excused from these courses, this student would not receive credit for taking these courses. The student excused from the first-tier beginning sequence is required to take the entire second-tier intermediate sequence and three third-tier HU/SS electives. Total courses/credits: 6/18.

• To receive the Minor in German Studies, a student’s cumulative grade point average for required course work within this discipline must be at least 2.00. • At least 12 of the credits to be applied towards the Minor in German Studies must be earned at MSOE. • Native German speakers are ineligible for the Minor in German Studies. Students who have attended German immersion schools for more than five years are also ineligible. 167

Required Courses (9 to 18 Credits) Credit In Quarter Hours

HU-410G HU-411G HU-412G HU-413G HU-414G HU-406G

German I German II German III German IV German V German Literature

3 3 3 3 3 3

These courses are run in sequence from fall to spring and are offered in response to student interest. Approved Courses (6 to 9 Credits) SS-415G HU-449 SS-458

German Culture German History Contemporary European Society and Government

3 3 3

168

Mathematics Department Main Office: Walter Schroeder Library, L-326 Phone: (414) 277-7454 Fax: (414) 277-7497 Website: www.msoe.edu/math The Mathematics Department offers a variety of required and elective courses to support the numerous degree programs at MSOE. It also provides students the opportunity to earn a Minor in Mathematics.

Faculty: Chairperson: Dr. Karl H. David Department Administrative Assistant: Amy Labiszak Professor: Dr. Yvonne I. Yaz Associate Professors: Dr. Karl H. David, Edward J. Griggs, Dr. Ronald W. Jorgensen, Dr. Chunping Xie Assistant Professors: Dr. Kseniya Fuhrman, Dr. Bruce Oâ€™Neill Adjunct Associate Professor: Dr. AbdelNaser Al-Hasan Adjunct Assistant Professor: Lecturers: Patricia Berg, Jill R. Bolankowski, Dr. Laura Ellwein Professors Emeriti: George L. Edenharder, Stanley J. Guberud, Dorothy J. Johnson, Janet Klein, Dr. Peter K.F. Kuhfittig, Robert P. Schilleman, Andrew B. Schmirler

Mathematics

Gina M. Moran

Adjunct Professor Emeritus: Dr. Robert R. Rice Instructor Emerita: Nancy E. Olmsted

169

Mathematics Electives Credit In Quarter Hours

MA-230 MA-330 MA-343 MA-3620 MA-3710 MA-380 MA-381 MA-382 MA-383 MA-384 MA-385 MA-386 MA-387 MA-388

170

Discrete Mathematics Vector Analysis Matrix Methods and Linear Programming Random Variables and Statistics Mathematical Biology Advanced Differential Equations Complex Variables Laplace Transforms Linear Algebra Statistical Methods for Use in Research Modern Algebra with Applications Functions of a Real Variable Partial Differential Equations Introduction to Number Theory

4 3 3 3 3 3 3 3 3 3 3 3 3 3

Minor in Mathematics V1.5 The Minor in Mathematics is offered to those students who wish to expand their background and understanding of mathematics. A Minor in Mathematics will strengthen a studentâ€™s specialty, make his or her degree more attractive to potential employers, and enhance the preparedness of the student for graduate school. To qualify for a Minor in Mathematics, a student must take at least 31 credits in eligible courses. Of these credits, 16 must be earned in residence at MSOE. Six of the nine approved course credits must come from courses not specifically required for the studentâ€™s major and must be earned in residence at MSOE. A minimum GPA of 2.00 is required for mathematics courses counted towards the minor. Approved courses used to fulfill program elective requirements may also be applied towards the minor. For further questions or information, please contact the department chair. Required Courses (22 credits) Credit In Quarter Hours

MA-136 MA-137 MA-231 MA-232 MA-235 MA-262

Calculus for Engineers I Calculus for Engineers II Calculus for Engineers III Calculus for Engineers IV Differential Equations for Engineers Probability and Statistics

4 4 4 3 4 3

Approved Courses (9 credits) Discrete Mathematics Vector Analysis Matrix Methods and Linear Programming Random Variables and Statistics Mathematical Biology Advanced Differential Equations Complex Variables Laplace Transforms Linear Algebra Statistical Methods for Use in Research Modern Algebra with Applications Functions of a Real Variable Partial Differential Equations Introduction to Number Theory

4 3 3 3 3 3 3 3 3 3 3 3 3 3

Mathematics

MA-230 MA-330 MA-343 MA-3620 MA-3710 MA-380 MA-381 MA-382 MA-383 MA-384 MA-385 MA-386 MA-387 MA-388

Some of the approved courses are offered every year and some only if there is sufficient interest. There is no guarantee of availability of any particular course in any particular quarter. Future changes in course offerings that will meet the requirements of the minor will be indicated on the Mathematics Department Web page and in the Undergraduate Academic Catalog. Alternatives for specific programs: MA-262 is replaced by MA-3610 and MA-3620 in the biomedical and electrical engineering programs, respectively. 171

Mechanical Engineering Department Main Office: Allen-Bradley Hall of Science, S-110 Phone: (414) 277-7375 Fax: (414) 277-2222 Website: www.msoe.edu/me It is the mission of the Mechanical Engineering (ME) Department to provide students with a professional education that is both technically current and well rounded. We strive to prepare our students for professional careers in engineering or engineering technology, and to instill in them an awareness of professional and social responsibility. The ME Department offers four-year baccalaureate degrees in mechanical engineering, industrial engineering, engineering and mechanical engineering technology. All of the degree programs are committed to delivering high-quality undergraduate education, stressing laboratory experiences and preparation for professional practice in an intimate, personal learning environment. Laboratories are used extensively to support the curricula. The department maintains undergraduate laboratories in the areas of materials characterization and testing, manufacturing processes, energy systems, fluid power, electromechanical systems, ergonomics and computer-aided engineering, as well as laboratory space devoted to senior design project work.

Faculty: Chairman: Dr. Matthew A. Panhans Professors: Dr. Cynthia W. Barnicki, Dr. Subha F. Kumpaty, Thomas J. Labus, Dr. Mohammad Mahinfalah, Dr. Joseph C. Musto, Dr. Matthew A. Panhans, Dr. Hermann Viets Associate Professors: Lukie L. Christie, Dr. Christopher J. Damm, John L. Ficken, Dr. John E. Pakkala, Dr. Vincent Prantil, Dr. Robert Rizza, Michael J. Swedish, Dr. Charlene Yauch Assistant Professors: Dr. Aaron J. Armstrong, Dr. William C. Farrow, Dr. Dragomir C. Marinkovich, Dr. Leah Newman, Dr. Matt Schaefer Adjunct Professors: Dr. Burzoe K. Ghandhi, Dr. Carl E. Rathmann, Dennis P. Tronca Adjunct Associate Professors: Dale R. Boschke, David Gerow, Stephen H. Rather, Dr. Luis G. Rodriguez, Thomas S. Wanke Adjunct Assistant Professors: Dr. David Dreifus, Dr. Jianxun Hu, Dr. Richard H. Jungmann, Dr. Medhat K. B. Khalil Lecturers: Jeffrey L. Bitant, Sara Falkiewicz, Ann Herrmann, David Kohlmann, Peter Maloney, William Santy, Debra Smith, Laura L. Strobel Professors Emeriti: Edward Allan, John H. Farrow, Paul A. Gutting, Harvey Hoy, Dr. Charles F. James Jr., Dr. Robert A. Kern, Lawrence B. Korta, Arthur B. Michael, Paul P. Perdue, Dr. John Slater, Paul H. Unangst, Lloyd E. Vlies ME Department Staff: Ann Deisinger, Roger Hajny, Lynn Kallas, Richard Phillips, James Yauch 172

Program Director: Dr. Cynthia Barnicki Office: S-112 Phone: (414) 277-7461 E-mail: barnickc@msoe.edu

Engineering

Bachelor of Science Engineering

The Bachelor of Science in Engineering program provides a general, flexible, interdisciplinary academic experience in the engineering field. It offers a firm grounding in the fundamentals of engineering science and engineering design, as well as numerous elective options that offer the opportunity to customize the technical focus of the degree program. Suggested elective tracks in the areas of product design and enterprise systems are available, but other unique plans of study can be accommodated. The program is tailored to the adult learner, who may have previous college experience, an engineering-related career and very clear professional objectives for continued study in engineering, coupled with a desire to pursue the degree using part-time and evening hours.

Program Objectives The Bachelor of Science in Engineering will prepare graduates to: • use their engineering, design, business and problem-solving skills to contribute professionally in an industrial environment. • demonstrate initiative, leadership, teamwork and continued development in their professional careers. • use their broad education to interpret and understand their roles as professionals in industry and society.

Program Outcomes Upon completion of the Bachelor of Science in Engineering program, the student will have: • an ability to apply knowledge of mathematics, science, business and engineering. • an ability to design and conduct experiments, as well as to analyze and interpret data. • an ability to design a system, component, or process to meet desired needs within the types of realistic constraints seen in an industrial environment. • an ability to function on multi-disciplinary teams. • an ability to identify, formulate and solve engineering problems. • an understanding of professional and ethical responsibility. • an ability to communicate effectively, using verbal, written and graphical means. • the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental and societal context. • a recognition of the need for, and an ability to engage in, lifelong learning. • a knowledge of the contemporary issues in his or her profession. • an ability to use the techniques, skills and modern engineering tools necessary for engineering practice. 173

BACHELOR OF SCIENCE ENGINEERING Model Part-time Track - V1.1 ------------QUARTER------------FIRST YEAR EG-124 MA-128 OR-100

CAD Graphics I Analytic Geometry and Calculus I Freshman Orientation1

MA-225 PH-113

Calculus II College Physics I

MA-226 EN-131

Calculus III Composition TOTALS

SECOND YEAR MA-262 PH-123

Probability and Statistics College Physics II

CH-200 EN-132

Chemistry I Technical Composition

CH-201 HU-100

Chemistry II Contemporary Issues in the Humanities TOTALS

THIRD YEAR ME-255 GE-3601

Engineering Statics for Nonmechanical Engineers Solid Modeling and Design I

GE-3602 GE-2006

Solid Modeling and Design II Engineering Dynamics

ME-207 EN-241

Mechanics of Materials Speech TOTALS

FOURTH YEAR GE-3901

Computer Tools Elective (HU/SS)2

MS-331 EE-201

Business Law Linear Networks: Steady-State Analysis

EE-253

Elective (Economics) Analysis and Control of Electromechanical Devices TOTALS

174

2-2-3 4-0-4 1-0-0 4-0-4 3-2-4 4-0-4 3-0-3 7-2-7

7-2-8

7-0-7

3-0-3 3-2-4 3-2-4 3-0-3 3-2-4 3-0-3 6-2-7

6-2-7

3-0-3 2-2-3 2-2-3 3-0-3 3-2-4 2-2-3 5-2-6

5-2-6

5-4-7

2-2-3 3-0-3 3-0-3 4-0-4 3-0-3 3-2-4 5-2-6

7-0-7

6-2-7

FIFTH YEAR ME-321 GE-3101

Materials Science Fluid Mechanics

MA-3501

Engineering Mathematics I Elective (HU/SS)2

IE-340 MA-3502

Project Management Engineering Mathematics II TOTALS

SIXTH YEAR ME-354 MS-354

Thermodynamics and Heat Transfer Principles of Accounting

TC-452

Elective (HU/SS)2 Interpersonal Communication

4-0-4 3-0-3 3-0-3 4-0-4 5-2-6

7-0-7

3-0-3 3-0-3 3-0-3 3-0-3

Elective (Technical)2 Elective (Math/Science)2 TOTALS

SEVENTH YEAR IE-423

MS-356

Engineering Economy Elective (HU/SS)2

3-0-3 3-0-3 6-0-6

6-0-6

3-0-3 3-0-3

Elective (Math/Science)2 Business Finance

3-0-3 3-0-3

Elective (Free)2 Elective (Free)2 TOTALS

EIGHTH YEAR GE-3301

Elective (HU/SS)2 Instrumentation and Control of Engineered Systems

GE-3650

Elective (Free)2 Engineering Systems Design

GE-3651

Elective (Free)2 Computer-Aided Engineering Design TOTALS

3-0-3 2-2-3

Engineering

------------QUARTER-------------

3-0-3 3-0-3 6-0-6

6-0-6

3-0-3 2-2-3 3-0-3 4-0-4 3-0-3 2-2-3 5-2-6

7-0-7

5-2-6

175

------------QUARTER------------NINTH YEAR Elective (Free)2 Elective (Free)2 SS-461

Elective (Technical)2 Organizational Psychology

HU-432

Elective (Technical)2 Ethics for Professional Managers and Engineers TOTALS

TENTH YEAR GE-4901 OR-402

Capstone Design I Elective (Technical)2 Professional Guidance

GE-4902

Capstone Design II Elective (Technical)

GE-4903

Capstone Design III Elective (Technical)2 TOTALS

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 6-0-6

6-0-6

3-0-3 3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 7-0-7

6-0-6

Transfer students who have completed 36 quarters or 24 semester credits will be waived from OR-100, but will be required to complete OR-301 Transfer Student Orientation.

There are 57 credits of elective subjects in the engineering program, which must be taken as follows: • 15 credits from humanities and social sciences (HU/SS), distributed as follows: • 3 credits from the sociology series (SS-47X). • 3 credits from the political science series (SS-45X). • 6 credits from courses with an HU designation. • 3 credits with either an HU or SS designation. • 6 credits from the MA, PH, CH, or SC designations, from an approved list. • 18 credits from the technical electives list. • 18 credits from any 200-, 300- or 400- level subject (free elective), subject to an approved plan of study.

176

Suggested Technical Electives EE-1910 Introduction to Computer Programming EE-2901 Digital Logic Circuits EE-474 Programmable Controllers GE-460 Quality in Electronic Systems IE-347 Facilities Design IE-348 Quality Assurance (SPC) IE-362 Ergonomics and Methods Development IE-3770 Computer Integrated Manufacturing IE-431 Six Sigma Methods IE-4332 Lean ME-309 Intermediate Mechanics of Materials ME-363 Design of Machine Components ME-322 Engineering Materials ME-323 Manufacturing Processes ME-423 Materials Selection ME-424 Engineering with Plastics

Engineering

Engineering Electives

Product Design Track EE-1910 Introduction to Computer Programming EE-2901 Digital Logic Circuits EE-474 Programmable Controllers IE-362 Ergonomics and Methods Development IE-431 Six Sigma Methods ME-309 Intermediate Mechanics of Materials ME-363 Design of Machine Components ME-322 Engineering Materials ME-323 Manufacturing Processes ME-423 Materials Selection ME-424 Engineering with Plastics Enterprise Systems Track IE-347 Facilities Design IE-348 Quality Assurance (SPC) IE-3770 Computer Integrated Manufacturing IE-411 Compensation Systems Design IE-431 Six Sigma Methods IE-4332 Lean GE-460 Quality in Electronic Systems

177

Bachelor of Science Industrial Engineering Program Director: Dr. Charlene A. Yauch, P.E. Office: S-112C Phone: (414) 277-7258 Fax: (414) 277-2222 E-mail: yauch@msoe.edu Industrial engineers play key roles in virtually every business and industry today. By focusing on critical processes and systems, industrial engineers are making these businesses more efficient, effective and productive. Industrial engineers are often seen as facilitators of change. Industrial engineering is primarily concerned with the design and continuous improvement of systems effectively integrating people, processes and technology. Quality and productivity improvement are critical issues. Industrial engineering course work establishes a solid engineering foundation, upon which specialized technical and management knowledge and skill sets are built. Educational experiences include a variety of business/industry projects, which enable our graduates to make significant contributions in diverse enterprises such as manufacturing, warehousing and distribution, insurance, banking, consulting and health care.

Program Objectives The industrial engineering (IE) program at MSOE aims to be the program of choice for all students who desire a student-centered, interactive learning environment, with a hands-on orientation and practical industry-based project experiences. MSOE’s IE graduates are aggressively pursued by a diverse array of employers in manufacturing and service industries such as consulting, health care, logistics, and retail. Our faculty provide state-of-the art expertise, combining theoretical knowledge and practical experience to provide students with a solid foundation for future achievement. Internal and external customers seek out the program’s faculty and students for innovative solutions to their technical and business challenges. MSOE’s IE program is committed to producing baccalaureate engineers who, within five years after graduation, will: • demonstrate management and leadership skills, including negotiating with and influencing others, and leading a project team. • demonstrate problem-solving skills, utilizing relevant data-driven IE methods. • uphold ethical standards and contribute to the broader engineering community. • drive organizational improvement efforts, providing training, mentoring or subject matter expertise to others. • understand and adapt to their organization’s long-term strategy, vision and business objectives. • have a sense of self awareness, intellectual curiosity and readiness for change.

178

Program Outcomes

• design and conduct experiments, as well as to analyze and interpret data. • design a system, component or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability and sustainability. • function on multi-disciplinary teams. • identify, formulate and solve engineering problems. • understand professional and ethical responsibility. • communicate effectively.

Industrial Engineering

At the conclusion of the industrial engineering program at MSOE, the student will have the ability to: • apply knowledge of mathematics, science and engineering.

• understand the impact of engineering solutions in a global, economic, environmental and societal context. • recognize the need for, and an ability to engage in, life-long learning. • understand contemporary issues. • use the techniques, skills and modern engineering tools necessary for engineering practice. • design, develop, implement and improve integrated systems that include people, materials, information, equipment and energy.

179

FRESHMAN YEAR

BACHELOR OF SCIENCE INDUSTRIAL ENGINEERING Model Full-time Track - V6.1 ------------QUARTER-----------1 2 3

MA-136 EN-131 CH-200 OR-100 IE-100 AE-1311

Calculus for Engineers I Composition Chemistry I Freshman Orientation1 Introduction to Industrial Engineering Profession Introduction to CAD

MA-137 HU-100 EN-132 PH-2010 HU-494

Calculus for Engineers II Contemporary Issues in the Humanities Technical Composition Physics I - Mechanics Creative Thinking

MA-231 PH-2020 CH-201 EN-241 IE-193

Calculus for Engineers III Physics II - Electromagnetism and Optics Chemistry II Speech Computer Applications in Industrial Engineering TOTALS

4-0-4 3-0-3 3-2-4 1-0-0 2-2-3 1-1-1 4-0-4 3-0-3 3-0-3 3-3-4 3-0-3 4-0-4 3-3-4 3-2-4 2-2-3 2-2-3 14-5-15

16-3-17

14-9-18

SOPHOMORE YEAR MA-235 MA-262 ME-1601 ME-205 PH-2030

Differential Equations for Engineers Probability and Statistics Introduction to Engineering Design Engineering Statics Physics III - Thermodynamics and Quantum Physics

EE-201 IE-203 ME-206 MA-232 MS-221

Linear Networks: Steady-State Analysis Applications of Statistics in Industrial Engineering Engineering Dynamics Calculus for Engineers IV Microeconomics

IE-2450 IE-348 EE-253 ME-207

Elective (Math/Science) Work Planning and Methods Development Quality Assurance (SPC) Analysis and Control of Electromechanical Devices Mechanics of Materials TOTALS

180

4-0-4 3-0-3 2-2-3 4-0-4 3-3-4 4-0-4 2-2-3 4-0-4 3-0-3 3-0-3

16-5-18

3-0-3 2-2-3 3-0-3 3-2-4 3-2-4 16-2-17

14-6-17

JUNIOR YEAR Deterministic Modeling and Optimization Professional Guidance Project Management Principles of Accounting Business Law Ergonomics

IE-382 IE-423 IE-426 IE-331 IE-391

Stochastic Processes Engineering Economy Materials and Manufacturing Processes Production Planning and Inventory Control Industrial Engineering Junior Project

IE-383 IE-347

Simulation Facilities Design Elective (Technical)2 Contemporary Manufacturing Systems Organizational Psychology

IE-336 SS-461

TOTALS

SENIOR YEAR IE-4901

IE-4773 IE-4902 HU-432 IE-440

MS-327

Industrial Engineering Senior Design Project I Elective (HU/SS)2 Elective (HU/SS)2 Elective (Technical)2 Computer Aided Manufacturing/ CNC Machining/Rapid Prototyping

3-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-2-4 3-0-3 3-0-3 3-2-4 3-0-3 2-2-3 3-2-4 3-2-4 3-0-3 2-2-3 3-0-3 16-2-17

14-4-16

14-6-17

2-2-3 3-0-3 3-0-3 3-0-3 2-2-3

Industrial Engineering Senior Design Project II Elective (HU/SS)2 Ethics for Professional Managers and Engineers Team Leadership/Facilitation Elective (Technical)2

1-3-3 3-0-3 3-0-3 2-2-3 3-0-3

Elective (Management Systems)3 Elective (HU/SS)2 Elective (Free)2 International Business Elective (Technical)2 TOTALS

Industrial Engineering

IE-381 OR-402 IE-340 MS-354 MS-331 IE-3621

------------QUARTER-----------7 8 9

3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 13-4-15

12-5-15

15-0-15

1Transfer

students who have completed 36 quarter or 24 semester credits will be waived from OR-100 but will be required to satisfactorily complete OR-301 Transfer Student Orientation.

2There

are 33 credits of elective subjects in the industrial engineering program. Students, in collaboration with their faculty advisors, design their program from the following electives categories: •

12 credits from approved industrial engineering electives list

•

3 credits from management systems electives

•

12 credits from humanities and social sciences (HU/SS), of which 6 must be in the humanities area (HU) and 6 in the social sciences (SS) area

•

Any 3-credit course (300 or 400 level) unless otherwise approved by the program director

•

3 credits from approved list of math or science electives

3In

order to obtain the minor in general management, the industrial engineering student must take MS-342, MS-356, and MS-361, in addition to the management courses already required by this industrial engineering curriculum. (MS-340, MS-344, and MS-4801 may not be taken for credit by IEs.)

Accredited by the Engineering Accreditation Commission of the ABET, http://www.abet.org.

181

Industrial Engineering Electives Credit In Quarter Hours

Technical Electives IE-312 IE-377 IE-3770 IE-4260 IE-449 IE-460 IE-4621 IE-4622 IE-470 IE-483 IE-4903 IE-4332 IE-431

Research Methods Safety in Engineering Computer Integrated Manufacturing Design for Manufacture and Assembly Quality Management Design for Quality Sociotechnical Systems Organization and Job Design Topics in Industrial Engineering Advanced Simulation Industrial Engineering Senior Design III Lean Six Sigma Methods

3 3 4 3 3 3 3 3 3 3 3 3 3

With the written consent of the IE program director and after careful review of both student developmental objectives and the science/design content of alternate selections, some engineering elective substitutions may be permitted. In no case may an engineering technology course (MT, ET, etc.) be substituted for an engineering course. Elective combinations are restricted. Elective selection must be done in consultation with the faculty curriculum advisor. Students in Air Force ROTC may make the following substitutions in the above program: AF-300 for MS-441, a management science elective; AF-401 for SS-455, an SS political science series elective; AF-402 for MS-331; and AF-301 for the free elective.

182

Bachelor of Science Mechanical Engineering

Mechanical engineering is one of the broadest engineering disciplines. It involves the design, development, analysis and control of devices, machines and systems. A degree in mechanical engineering prepares students for careers in industries such as energy, environmental, manufacturing, biotechnology, medical, transportation, aerospace and more. The degree also forms a solid foundation for further graduate studies. Electives in MSOE’s mechanical engineering program allow for specialization including mechanical design (solid mechanics, machine dynamics and medical applications), energy systems (renewable energy, aerodynamics, thermal systems and fluid power) and materials/manufacturing (metals, polymers, composites and processing).

Mechanical Engineering

Program Director: Dr. Joseph Musto Office: S-129 Phone: (414) 277-7455 Fax: (414) 277-2222 E-mail: musto@msoe.edu

Program Goals The goals of the mechanical engineering program are: • to produce mechanical engineering graduates with a strong theoretical and applications background, whose analytical, design and laboratory experiences make them attractive to industry and capable of advanced study in engineering. • produce well-rounded engineers who view engineering as a profession with social and ethical responsibilities. • to provide an intimate learning environment, with personal involvement of faculty with significant industrial experience.

Program Objectives Based on these goals, the educational objectives of the mechanical engineering program are to produce engineering graduates who will: • use their educations to become productive, contributing professionals in their chosen field. • demonstrate initiative in their professional activities. • show continued professional development. • understand the impact of their professional activities on society.

183

Program Outcomes In accordance with these objectives, the educational outcomes of the program are to produce graduates who will have: • an ability to apply knowledge of math, engineering, and science. • an ability to design and conduct experiments, and to analyze and interpret data. • an ability to design a system, component or process to meet needs within realistic constraints. • an ability to function on multi-disciplinary teams. • an ability to identify, formulate and solve mechanical engineering problems. • an understanding of professional and ethical responsibility. • an ability to communicate effectively. • the broad education necessary to understand the impact of engineering solutions in a global and societal context. • the recognition of need for, and an ability to engage in, life long learning. • a knowledge of contemporary issues. • the ability to use techniques, skills, and tools in engineering practice. • the ability to work professionally in both thermal and mechanical systems areas. The mechanical engineering curriculum has been designed to achieve these objectives and outcomes. The components of the curriculum are: • the freshman year, consisting of a broad-based education focused on the mathematics, basic sciences, the humanities and an introductory sequence in mechanical engineering applications. • the sophomore year, which serves as a transition from broad-based general education to the highly focused mechanical engineering courses through advanced studies in mathematics and science, and a course sequence in engineering mechanics and systems. • the junior year, in which the student focuses in-depth in each of the three branches of technical specialization through the use of the energy sequence, the materials/manufacturing sequence and the mechanics sequence. • the senior year, in which the focus is on application of the knowledge acquired in the first three years of the curriculum to the design of mechanical and thermal systems, with special emphasis on technical electives and the senior design project.

184

BACHELOR OF SCIENCE MECHANICAL ENGINEERING Model Full-time Track - V10.2

FRESHMAN YEAR CH-200 EN-131 MA-136 ME-1601 OR-100 ME-1001

Chemistry I Composition Calculus for Engineers I Introduction to Engineering Design Freshman Orientation1 Mechanical Engineering Freshman Seminar

HU-100 MA-137 ME-190 PH-2010

Contemporary Issues in the Humanities Calculus for Engineers II Computer Applications in Engineering I Physics I - Mechanics

CH-201 EN-132 MA-231 ME-191 PH-2020

Chemistry II Technical Composition Calculus for Engineers III Computer Applications in Engineering II Physics II - Electromagnetism and Optics TOTALS

3-2-4 3-0-3 4-0-4 2-2-3 1-0-0 1-0-0 3-0-3 4-0-4 2-2-3 3-3-4 3-2-4 3-0-3 4-0-4 1-2-2 3-3-4 14-4-14

12-5-14

14-7-17

SOPHOMORE YEAR MA-235 ME-205 PH-2030 EE-201 EN-241 MA-232 ME-206 EE-253 MA-262 ME-207 ME-230

Differential Equations for Engineers Engineering Statics Physics III - Thermodynamics and Quantum Physics Linear Networks: Steady-State Analysis

4-0-4 4-0-4 3-3-4 4-0-4

Speech Calculus for Engineers IV Engineering Dynamics Elective2 Analysis and Control of Electromechanical Devices

2-2-3 3-0-3 4-0-4 3-0-3 3-2-4

Probability and Statistics Mechanics of Materials Dynamics of Systems Elective2 Elective2 TOTALS

Mechanical Engineering

------------QUARTER------------1 2 3

3-0-3 3-2-4 4-0-4 3-0-3 3-0-3 15-3-16

15-4-17

16-2-17

185

------------QUARTER-----------7 8 9

JUNIOR YEAR ME-300 ME-309 ME-311 ME-321

Modeling and Numerical Analysis Intermediate Mechanics of Materials Principles of Thermodynamics I Materials Science Elective2

ME-314 ME-317 ME-322 ME-361

Principles of Thermodynamics II Fluid Mechanics Engineering Materials Dynamics of Machinery Elective2

IE-340 ME-318 ME-323 ME-363

Project Management Heat Transfer Manufacturing Processes Design of Machine Components Elective2 TOTALS

3-2-4 2-2-3 3-0-3 3-0-3 3-0-3 4-0-4 3-2-4 3-2-4 2-2-3 3-0-3 3-0-3 4-0-4 3-2-4 4-0-4 3-0-3 14-4-16

15-6-18

17-2-18

SENIOR YEAR ME-416 ME-431 ME-460 ME-490 SS-461

Thermodynamics Applications Automatic Control Systems Finite Element Methods Senior Design I Organizational Psychology

IE-423 ME-433 ME-491

Engineering Economy Electromechanical Systems Senior Design II Elective2 Elective2

HU-432

Ethics for Professional Managers and Engineers Elective2 Elective2 Elective2 Elective2 TOTALS

3-2-4 3-2-4 3-2-4 3-0-3 3-0-3 3-0-3 3-2-4 1-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 15-6-18

13-2-16

15-0-15

1 Transfer

students who have completed 36 quarter or 24 semester credits will be waived from OR-100 but will be required to complete OR-301 Transfer Student Orientation.

2 There

are 36 credits of elective subjects in the mechanical engineering program, which must be taken as follows:

• 15 credits from humanities and social sciences (HU/SS), distributed as follows: • 3 credits from the sociology series (SS-47X or SS-415X). • 3 credits from the political sciences series (SS-45X). • 6 credits from courses with an HU designation (400 level). • 3 credits with either an HU or SS designation (400 level). • 3 credits from the field of mathematics. • 3 credits must be taken as a science elective at the 300 level or above. • 12 credits from the ME technical electives list, with at least 9 credits from courses with an ME designation. • 3 credits from any 200-, 300-, or 400-level subject (Free Elective). Students in Air Force ROTC may make the following substitutions in the mechanical engineering program: AF-300 for the free elective and AF-401 for SS-455 (SS elective). Accredited by the Engineering Accreditation Commission of the ABET, http://www.abet.org.

186

Mechanical Engineering Electives All are three-credit classes. Design of Machinery Systematic Engineering Design Vibration Control Vehicle Dynamics Experimental Stress Analysis Advanced Topics in Fluid Mechanics Internal Combustion Engines Materials Selection Engineering with Plastics Composite Materials Medical Applications for Mechanical Engineering Fluid Power Circuits Modeling and Simulation in the Design of Hydraulic Components Design of Fluid Power Circuits HVAC System Design Compressible Flow Aerodynamics Computational Fluid Mechanics Advanced Energy Technologies Renewable Energy Utilization Advanced Topics in Energy Systems Senior Design Project III Topics in Mechanical Engineering Independent Study Introduction to Environmental Chemistry Lasers and Applications Introduction to Optics and Photonics Acoustics and Illumination Production Management Advanced Operations Management Technical Selling

Mechanical Engineering

ME-362 ME-3650 ME-401 ME-402 ME-409 ME-411 ME-419 ME-423 ME-424 ME-429 ME-4610 ME-471 ME-472 ME-475 ME-480 ME-4802 ME-481 ME-4803 ME-4804 ME-4805 ME-485 ME-492 ME-498 ME-499 CH-352 PH-320 PH-322 PH-325 MS-340 MS-3405 MS-462

Note: Any 300 or 400 level engineering course from outside the ME program (IE, EE, CE, CVE, SE, AE, BE) may also be used as a technical elective, assuming there is no duplication of material with any other required or elective course.

187

German Study-abroad Program Students in the mechanical engineering program at MSOE have the opportunity to study abroad through an agreement between MSOE and the Lübeck University of Applied Sciences in Lübeck, Germany. The timing could not be better. American business is competing on an international level like at no other time in U.S. history. Foreign companies are buying or forming alliances with American companies at a record pace. There is an increasing likelihood of a graduate doing business with or even working for a foreign owned company. The graduate who has traveled internationally, speaks a foreign language or has an understanding of the cultures and traditions of other nations will have a marked advantage. The MSOE German Study-abroad Program enables students to study for one year at a German university where the focus is in the area of applied engineering with superbly outfitted laboratories, while at the same time gaining firsthand experience by being immersed in German culture.* The key features of MSOE’s program are: • All instruction is in English. Students do NOT need to know any German. • Students will receive two degrees, one from MSOE and one from the Lübeck University of Applied Sciences. • Students will graduate on schedule, if they stay on track in the ME curriculum.

The Program Mechanical engineering students who enroll in the German Study-Abroad Program will study for two semesters at the Lübeck University of Applied Sciences during their junior year. The school year runs September through June with extensive breaks, including between semesters, providing an excellent opportunity for European travel. Students live in off-campus housing arranged by the university. They are in class with their German counterparts. Mechanical engineering students wishing to participate in the study-abroad program at Lübeck University of Applied Sciences must have major and cumulative GPAs of 2.75 or higher at the end of the Winter Quarter of their sophomore year, and be in good academic standing at the end of Winter and Spring Quarters of their sophomore year. In addition, all curriculum requirements of the first two years of the mechanical engineering program must be completed by the end of Spring Quarter prior to departure for Germany. For more information about Lübeck University of Applied Sciences and Lübeck, Germany, please see page 136. *Certain academic requirements are applicable – see program director for details.

188

BACHELOR OF SCIENCE MECHANICAL ENGINEERING (MSOE STUDENTS AT LÜBECK) Model Full-time Track - V10.2A (See page 185 for the freshman and sophomore year classes)

IE-340 ME-309 ME-311 ME-361 ME-363 ME-431A

ME-300 ME-314 ME-317 ME-318 ME-3650 ME-401 ME-431B

Project Management Intermediate Mechanics of Materials Principles of Thermodynamics I Dynamics of Machinery Design of Machine Components Automatic Control Systems (lecture only) German Language I Social Science I Modeling and Numerical Analysis Principles of Thermodynamics II Fluid Mechanics Heat Transfer Systematic Engineering Design1 Vibration Control1 Automatic Control Systems (lab only) German Language II Social Science II TOTALS

SENIOR YEAR AT MSOE ME-321 ME-416 ME-460 ME-490 SS-461 IE-423 ME-322 ME-433 ME-491 ME-4951 HU-432 ME-323 ME-492 ME-4952

Materials Science Thermodynamics Applications Finite Element Methods Senior Design I Organizational Psychology Engineering Economy Engineering Materials Electromechanical Systems Senior Design II Diploma Thesis I1 Ethics for Professional Managers and Engineers Manufacturing Processes Senior Design III1 Diploma Thesis II1 Elective (Technical)1 TOTALS

-------------TERM----------2

3-0-3 2-2-3 3-0-3 2-2-3 4-0-4 3-0-0 4.5-0-4.5 4.5-0-4.5 3-2-4 4-0-4 3-2-4 4-0-4 3-0-3 3-0-3 0-2-4 4.5-0-4.5 4.5-0-4.5 26-4-25

29-6-35

3-0-3 3-2-4 3-2-4 3-0-3 3-0-3

Mechanical Engineering Study Abroad

JUNIOR YEAR AT LÜBECK

3-0-3 3-2-4 3-2-4 1-0-3 1-0-1 3-0-3 3-2-4 1-0-3 2-0-2 3-0-3 15-4-17

11-4-15

12-2-15

There are 36 credits of elective subjects in the mechanical engineering program, which must be taken as follows: • 15 credits from humanities and social sciences (HU/SS), distributed as follows: • 3 credits from the sociology series (SS-47X or SS415X). • 3 credits from the political science series (SS-45X). • 6 credits from courses with an HU designation. • 3 credits with either an HU or SS designation.

Students at FHL will meet these requirements through the combination of Social Science I and II, which will be comprised of a combination of SS-415G, SS-457, and SS-499, as well as two German Language electives, which will be comprised of HU-410G, HU-411G, and HU-412G, or HU-412G, HU-413G, and HU-414G. • 3 credits from the field of mathematics.* • 3 credits from science (PH, CH, or SC courses)* • 12 credits from the ME technical electives list, with at least 9 credits from courses with an ME designation. ME401, ME-3650, and ME-492 will count toward these requirements. • 3 credits from any 200-, 300-, or 400-level subject (Free Elective). ME-4951 and ME-4952 in combination meet this requirement. *In order to satisfy degree requirements, students spending the junior year at FHL are strongly encouraged to complete the mathematics elective and the science elective prior to the junior year. Accredited by the Engineering Accreditation Commission of the ABET, http://www.abet.org. 189

BACHELOR OF SCIENCE MECHANICAL ENGINEERING (LÜBECK STUDENTS AT MSOE) Model Full-time Track - V10.2B JUNIOR YEAR AT LÜBECK IE-340 ME-361 ME-431A

Project Management Dynamics of Machinery Automatic Control Systems (Lecture Only) Social Science I1

ME-300 ME-3650 ME-401 ME-431B

Modeling and Numerical Analysis Systematic Engineering Design1 Vibration Control1 Automatic Control Systems (Lab Only) Social Science II1 TOTALS

3-0-3 2-2-3 3-0-0 4.5-0-4.5 3-2-4 3-0-3 3-0-3 0-2-4 4.5-0-4.5 12.5-2-10.5

13.5-4-18.5

SENIOR YEAR AT MSOE IE-423 ME-416 ME-460 ME-490 SS-461

Engineering Economy Thermodynamics Applications Finite Element Methods Senior Design I Organizational Psychology

ME-433 ME-491 ME-4951

Electromechanical Systems Senior Design II Diploma Thesis I1 Elective1 Elective1 Elective1

HU-432 MA-262 ME-492 ME-4952

Ethics for Professional Managers and Engineers Probability and Statistics Senior Design III1 Diploma Thesis II1 Elective1 TOTALS

1There

-------------TERM----------2

3-0-3 3-2-4 3-2-4 3-0-3 3-0-3 3-2-4 1-0-3 1-0-1 3-0-3 3-0-3 3-0-3 3-0-3 3-0-3 1-0-3 2-0-2 3-0-3 15-4-17

14-2-17

12-0-14

are 33 credits of elective subjects in the Mechanical Engineering program, which must be taken as follows:

• 15 credits from humanities and social sciences (HU/SS), distributed as follows: • 3 credits from the sociology series (SS-47X or SS415X), fulfilled at FHL. • 3 credits from the political science series (SS-45X), fulfilled at FHL. • 6 credits from courses with an HU designation, to be taken at MSOE. • 3 credits with either an HU or SS designation, fulfilled at FHL. Students at FHL will meet these requirements through the combination of Social Science I and II, which will be comprised of a combination of SS-415G, SS-457, and SS-499, and two HU electives taken at MSOE. • 3 credits from science (PH, CH, or SC courses) to be taken at MSOE. • 12 credits from the ME technical electives list, with at least 9 credits from courses with an ME designation. ME-401, ME-3650, and ME-492 will count toward these requirements; one additional technical elective must be taken at MSOE. • 3 credits from any 200-, 300-, or 400-level subject (Free Elective). ME-4951 and ME-4952 in combination meet this requirement. Accredited by the Engineering Accreditation Commission of the ABET, http://www.abet.org.

190

Bachelor of Science Mechanical Engineering Technology

The mechanical engineering technology program provides students with the education and experience to be successful in various fields of mechanical technology. It does so by emphasizing the application of fundamental scientific and engineering principles to the areas of mechanical design, fluid power, instrumentation/controls and materials. Completion of the program results in granting the Bachelor of Science in Mechanical Engineering Technology degree. Graduates can expect employment in the fields of product design and development, manufacturing systems design, technical sales, plant operations and management, quality assurance, testing and evaluation, utilities, power generation and automated equipment design and service. The program is designed to accommodate transfer students and working professional students, especially those with associate degrees in mechanical design and related fields. The program is offered in the evenings only. Typically, students will enroll for two classes per quarter. The classes shown in the part-time curriculum track are paired so that the required courses typically can be taken on the same nights of the week. The degree also may be pursued on a full-time basis, with all technical courses offered during the evening hours.

Mechanical Engineering Technology

Program Director: Dr. Dragomir C. Marinkovich Office: S-259 Phone: (414) 277-2469 Fax: (414) 277-2222 E-mail: marinkovich@msoe.edu

The curriculum introduces technical courses at an early stage. Mathematics and sciences are integrated as they are applied in the technical courses. General studies courses are spread throughout the curriculum. With this arrangement of courses, part-time students experience a continuous blend of technical and support classes throughout the program. Two technical electives and one free elective allow students to focus on an area of interest. However, the program is designed to produce well-rounded graduates who are competent in all areas of mechanical engineering technology.

191

Program Educational Objectives The mechanical engineering technology program at MSOE will prepare graduates for professional success in: • technical careers, including product design, development and testing, manufacturing, and field sales and service. • advancement into supervisory and managerial careers. • community involvement and leadership.

Program Outcomes Graduates of the mechanical engineering technology program will have: • an ability to apply the knowledge, techniques, skills and modern tools of the mechanical engineering technology field in the technical areas of mechanical design, fluid power and instrumentation/control systems. • an ability to apply the knowledge, principles, and procedures of mathematics, science, engineering and technology to engineering technology problems. • an ability to conduct, analyze, and interpret experiments; and to apply experimental results to improve processes. • an ability to design systems, components, and/or processes in the areas of mechanical design, fluid power and instrumentation/control systems. • an ability to function effectively as a member or leader on a technical team. • an ability to identify, analyze and solve technical problems. • an ability to communicate effectively regarding broadly-defined engineering technology activities. • an understanding of the need for and an ability to engage in self-directed continuing professional development. • a respect for social and intellectual diversity and an understanding of professional and ethical responsibilities. • a knowledge of the impact of engineering technology solutions in a societal and global context. • an understanding and demonstration of the importance of commitment to quality, timeliness, and continuous improvement in engineering operations and systems.

192

BACHELOR OF SCIENCE MECHANICAL ENGINEERING TECHNOLOGY Model Full-time Track - V2.2 ------------QUARTER-----------FRESHMAN YEAR 1 2 3 Materials and Processes CAD Graphics I Trigonometry College Algebra II Composition Transfer Orientation Seminar

EG-125 PH-113 MT-267 EN-132

CAD Graphics II College Physics I Dimensioning and Tolerancing Elective (HU) Technical Composition

MT-228 SS-471 EN-241 HU-100

Elective (SS) Machining Processes Sociology Speech Contemporary Issues in the Humanities TOTALS

SOPHOMORE YEAR MA-128 PH-123 MT-200

Analytic Geometry and Calculus I College Physics II Statics Elective (SS)

MA-225 MT-205 FP-2701 ET-1520

Calculus II Strength of Materials Basic Fluid Power Electric Circuits

MA-226 CH-310 ET-2550 MT-2601

Calculus III Applied Chemistry Electronics Mechanical Components TOTALS

3-0-3 2-2-3 4-0-4 4-0-4 3-0-3 1-0-0 2-2-3 3-2-4 2-2-3 3-0-3 3-0-3 3-0-3 2-2-3 3-0-3 2-2-3 3-0-3 17-2-17

13-6-16

13-4-15

4-0-4 3-2-4 4-0-4 3-0-3 4-0-4 4-0-4 3-0-3 3-2-4

Mechanical Engineering Technology

MT-1201 EG-124 MA-126 MA-127 EN-131 OR-307S

4-0-4 3-2-4 2-2-3 4-0-4 14-2-15

14-2-15

13-4-15

Technical classes are offered in the evenings only.

193

JUNIOR YEAR MT-3901 MT-2611 MA-262 MT-3101

Computer Tools Mechanisms Probability and Statistics Fluid Mechanics Elective (Economics)

MT-3111 MT-3611 MT-3401 MT-303

Thermodynamics Solid Modeling Quality in Manufacturing Dynamics Elective (Free)

IE-340 MT-3601 MT-4001 MT-3121 TC-452

Project Management Finite Element Analysis Advanced Mechanics Heat Transfer Interpersonal Communication TOTALS

SENIOR YEAR ET-4500 IE-423 MT-3301 MT-4401

Electric Motors Engineering Economy Electromechanical Instrumentation Hardware in Manufacturing Elective (Business)

SS-461 MT-4201 FP-4701 HU-432

Organizational Psychology Industrial Materials Advanced Fluid Power Ethics for Professional Managers and Engineers Elective (Technical)

MT-4301 MT-4901 OR-402

Feedback Control Systems Capstone Project Professional Guidance Elective (Technical) Elective (HU) TOTALS

------------QUARTER-----------7 8 9 2-2-3 4-0-4 3-0-3 2-2-3 3-0-3 4-0-4 3-2-4 3-0-3 3-0-3 3-0-3 3-0-3 3-2-4 3-0-3 3-2-4 3-0-3 14-4-16

16-2-17

15-4-17

2-2-3 3-0-3 2-2-3 3-2-4 3-0-3 3-0-3 3-2-4 3-2-4 3-0-3 3-0-3 3-2-4 2-0-3 1-0-1 3-0-3 3-0-3 13-6-16

15-4-17

Accredited by the Technology Accreditation Commission of the ABET, http://www.abet.org.

194

12-2-14

BACHELOR OF SCIENCE MECHANICAL ENGINEERING TECHNOLOGY Model Part-time Track - V2.2 The MET part-time track is primarily designed for students with prior course work. Required courses that are typically transferred are (24 credit total): Trigonometry Composition Algebra II CAD Graphics I

4-0-4 3-0-3 4-0-4 2-2-3

SS-471 EG-125 PH-113

YEAR ONE MT-1201 PH-123 OR-307S

Materials and Processes College Physics II Transfer Orientation Seminar

MT-267 FP-2701

Dimensioning and Tolerancing Basic Fluid Power Elective (Free)

MT-228

Machining Processes Elective (SS)

Sociology CAD Graphics II College Physics I

3-0-3 2-2-3 3-2-4

------------QUARTER-----------FA WI SP 3-0-3 3-2-4 1-0-0 2-2-3 3-0-3 3-0-3 2-2-3 3-0-3

YEAR TWO MT-200

Statics Elective (SS)

MT-205 TC-452

Strength of Materials Interpersonal Communication

MT-2601

Mechanical Components Elective (Economics)

4-0-4 3-0-3 4-0-4 3-0-3

Mechanical Engineering Technology

MA-126 EN-131 MA-127 EG-124

4-0-4 3-0-3

YEAR THREE MA-128 MT-2611

Analytic Geometry and Calculus I Mechanisms

MA-225 EN-132

Calculus II Technical Composition

MA-226 CH-310

Calculus III Applied Chemistry

4-0-4 4-0-4 4-0-4 3-0-3 4-0-4 3-2-4

YEAR FOUR MA-262 HU-100

Probability and Statistics Contemporary Issues in the Humanities

MT-3401 ET-1520

Quality in Manufacturing Electric Circuits

EN-241 ET-2550

Speech Electronics

3-0-3 3-0-3 3-0-3 3-2-4 2-2-3 2-2-3

195

YEAR FIVE MT-3901 IE-423

Computer Tools Engineering Economy

MT-3611

Solid Modeling Elective (HU)

MT-3601

Finite Element Analysis Elective (Technical)

------------QUARTER-----------FA WI SP 2-2-3 3-0-3 3-2-4 3-0-3 3-2-4 3-0-3

YEAR SIX MT-3101 MT-3301

Fluid Mechanics Electromechanical Instrumentation

MT-3111 MT-303

Thermodynamics Dynamics

MT-3121 MT-4001

Heat Transfer Advanced Mechanics

2-2-3 2-2-3 4-0-4 3-0-3 3-2-4 3-0-3

YEAR SEVEN ET-4500 HU-432

Electric Motors Ethics for Professional Managers and Engineers

MT-4201 SS-461

Industrial Materials Organizational Psychology

IE-340 MT-4301

Project Management Feedback Control Systems

2-2-3 3-0-3 3-2-4 3-0-3 3-0-3 3-2-4

YEAR EIGHT MT-4401

Hardware in Manufacturing Elective (Business)

FP-4701

Advanced Fluid Power Elective (Technical)

MT-4901 OR-402

Capstone Project Professional Guidance Elective (HU)

3-2-4 3-0-3 3-2-4 3-0-3

There are 27 credits of elective subjects in the MET program which must be taken as follows: • 6 credits in humanities (HU) • 6 credits in social sciences (SS) • 3 credits of free electives (200 level or above) • 3 credits of economics electives (MS-221 or MS-322) • 3 credits of business electives • 6 credits of technical electives Accredited by the Technology Accreditation Commission of the ABET, http://www.abet.org.

196

2-0-3 1-0-1 3-0-3

School of Nursing

Accreditation The baccalaureate program in nursing at MSOE is accredited by the Commission on Collegiate Nursing Education (CCNE) and has full approval from the Wisconsin Board of Regulation and Licensing, 1400 E. Washington, Madison, WI 53703.

Nursing

Main Office: Allen-Bradley Hall of Science, S-201 Phone: Local: (414) 277-7158 Toll Free: (888) 676-3687 (MSOE-NUR) Fax: (414) 277-4540 E-mail: nursing@msoe.edu Website: www.msoe.edu/nursing

Vision The School of Nursing aspires to excellence in educating nurses who impact society as expert practitioners, leaders and scholars.

Program Goals • educate men and women for practice as nursing generalists. • educate men and women to serve the nursing needs of a diverse global community. • educate men and women who are prepared to engage in graduate study. • collaborate with the business community to expand and improve technology used in nursing education. • prepare graduates who can critically reflect on their nursing practice and evaluate the effects of their nursing care. • prepare graduates who are guided by ethical principles and professional standards of care (ANA, 1998, AACN, 1998). In support of this mission, the School of Nursing maintains simulation and critical care labs as well as basic care labs on campus. All labs are equipped with state-of-the-art technology. Clinical experiences occur in a variety of hospitals and health care agencies in Milwaukee and surrounding communities. Upon successful completion of the program, graduates are awarded the Bachelor of Science in Nursing (BSN) degree and are eligible to sit for the national licensing examination (NCLEX-RN).

197

Faculty: Chairperson: Dr. Debra L. Jenks Program Director: Dr. Josanne Wollenhaupt Department Administrative Assistant: Paula A. Harrold Associate Professors: Dr. Debra Jenks, Dr. Sherrill Leifer, Dr. Josanne Wollenhaupt, Dr. Linda Young Assistant Professors: Victoria Carlson-Oehlers, Janet DeCoopman-Winter, Sharon Morris-Pruitt, Mary Jo Noble, Jane Paige, Dr. Renee Wenzlaff Instructors: Jessica Barkimer, Cindy Berg, Natasha El Hmaini, Debra Gleisberg, Rosha Hamilton, Molly Hendricks, Martha Kliebenstein, Catherine Leffler, Heather Paar, Rhonda Powell, Erin Quinnell, Kathleen Raczynski, Susan Schelinger, Jeri Schuster Adjunct Assistant Professors: Diane Dettinger, Jim Molnar, April Pellmann, Ellen Toth Professor Emerita: Dr. Mary Louise Brown Lab Faculty/Clinical Lab Assistants: Kathleen Raczynski, Jerilyn Schuster

198

Bachelor of Science Nursing

Program Outcomes Upon successful completion of the program, the graduate is expected to:

Nursing

Program Director: Dr. Josanne Wollenhaupt Office: S-200C Phone: (414) 277-4533 Fax: (414) 277-4540 E-mail: wollenha@msoe.edu

• provide competent, caring, holistic nursing care to clients across the lifespan through analytical use of the nursing process. • consistently employ effective communication skills with clients and multidisciplinary teams in a variety of health care settings. • incorporate principles of health promotion, maintenance and restoration to empower, clients to achieve optimal health. • assume a professional role that is responsive to the needs of society. • articulate the evolution of one’s goals and philosophy of nursing. • establishes a pattern of lifelong learning. • integrate appropriate technology when providing professional nursing care. • provide leadership when collaborating with other health care team members and communities in assuming accountability for nursing care outcomes. • integrate critical thinking skills, in diverse situations. • synthesize research findings and knowledge from the humanities and sciences into professional nursing practice.

Clinical Admission Requirements Admission to the School of Nursing’s clinical courses is guaranteed to any applicant who has been granted admission to MSOE and who meets the following criteria: • health requirements • Basic Life Support Certification* • criminal background screening, Federal Office of Inspector General (OIG), General Service Administration (GSA) • health insurance Failure to meet the requirements of the health and CPR policies will result in administrative withdrawal from clinical courses.

Health Requirements Students admitted to the nursing program must provide a health assessment and evidence of required immunizations. For current requirements see MSOE’s Health Services website. *Two-year Basic Life Support certification for health care professionals from the American Heart Association. 199

Persons with a seizure disorder must present certification from a physician that they are currently free of seizures and that it is not reasonably foreseeable that they will experience seizures during their clinical course work. Students with symptoms or signs of communicable disease or infected skin lesions must immediately contact the director of health services for evaluation of appropriate limitations (if any) in clinical course activities. The School of Nursing reserves the right to deny a student’s admission to a clinical course, or to limit or terminate his or her participation in a clinical course, if the student’s health status poses a significant risk to the health or safety of patients.

CPR Policy All students must present evidence, annually, of CPR certification by the American Heart Association Basic Life Support for Health Care Providers.

Criminal Background Check Students must not have been convicted of any crime that would substantially relate to the practice of nursing. All students are required to complete a background information disclosure form. Additionally, students must not appear on the Federal Office of Inspector General (OIG) or General Service Administration (GSA) registries. Wisconsin caregiver background checks and state criminal background checks are conducted on all students.

Clinical Experiences Clinical experiences commence in the sophomore year and occur in a variety of settings in Milwaukee and surrounding counties. Students are expected to provide their own transportation. Public transportation is available to many but not all of the clinical sites.

Student Uniform Students are required to purchase the student uniform and comply with the student dress code for all clinical lab experiences. Ordering information will be made available by the School of Nursing.

Laboratory Supplies Students are expected to procure the following supplies: • lab pack – contains supplies for individual use in on-campus laboratory – may be purchased in the MSOE Bookstore. • additional supplies are required and specified in the course syllabus. These supplies include, but are not limited to: dual-head stethoscope, bandage scissors, hemostat, pen light, EKG calipers and reflex hammer.

200

Curricular Information Additional Academic Requirements The following requirements are in addition to the academic regulations and policies that are cited in Section A of this Undergraduate Academic Catalog. A grade of “C” or better (not a “CD”) in all NU courses is the required prerequisite to continue to the next nursing course.

• NU courses may only be repeated one time. Failure to earn a “C” upon repeating the same course will result in academic dismissal.

Nursing

• A student receiving less than a “C” or a “W” will have to retake the course in its entirety (theory and clinical). This may delay progression by as much as one year.

• A maximum of two NU courses may be repeated. Failing to earn a “C” or better in a third NU course (with the exception of NU-260, NU-2810, NU-382, NU-290 and NU-391) will result in academic dismissal.al. • Students must earn a “C” or better in Anatomy and Physiology (BI-172, BI-273 and BI-274) as a prerequisite to progress into NU-2010 and/or NU-2020. Students earn a final grade in clinical nursing courses which is comprised of two components: • a numeric grade on theory/written work. This work includes assignments related to the clinical experience. • a pass/fail grade for clinical performance. The clinical performance is based on faculty evaluation. Students must complete their course of studies within six years of enrollment in their first NU clinical course. Any course that does not meet this guideline must be repeated in order to qualify for graduation. Special Testing Accommodations Special testing accommodations will be provided for students with documented special needs. Special testing conditions will not be provided for students without documentation on file. Curriculum Description The nursing program consists of 12 quarters of 16 to 18 quarter hours each of general education and professional nursing courses (see Model Full-time Track). Students who wish to enroll in fewer than 16 to 18 hours each quarter are advised to notify their advisor as soon as possible so that a satisfactory, comprehensive program plan can be designed. Upon successful completion of the required course work, the Bachelor of Science in Nursing (BSN) degree is awarded. Graduates from the MSOE School of Nursing are eligible to sit for the National Council Licensing Exam for RNs (NCLEX-RN).

201

FRESHMAN YEAR OR-301 EN-131 MA-127 MS-1850

BACHELOR OF SCIENCE NURSING Model Full-time Track - V4.6 ------------QUARTER-----------1 2 3

SS-460 NU-102 CH-2050

Transfer Student Orientation Composition College Algebra II Computer Methods and Applications in Healthcare Foundations of Psychology Orientation to Nursing General Chemistry for Life Sciences

BI-102 EN-241 BI-172 HU-100 CH-2250

Cell Biology and Genetics Speech Human Anatomy and Physiology I Contemporary Issues in the Humanities Organic Chemistry for Life Sciences

NU-220 BI-256 TC-452 BI-273 CH-2260

Health Care Terminology Microbiology Interpersonal Communication Human Anatomy and Physiology II Biochemistry for Life Sciences TOTALS

SOPHOMORE YEAR NU-210 BI-274 SS-462 PH-130 SS-471

Concepts of Professional Nursing Practice Human Anatomy and Physiology III Developmental Psychology Applications of Physics Sociology

NU-2010 NU-2020 NU-200 NU-290 NU-2810

Health Assessment of Individual Health Assessment of Family and Community History and Theories of Nursing Pathophysiology I Pharmacology I

NU-2520 NU-260 NU-391 NU-382

Primary Dynamics of Professional Nursing Care Nutrition Pathophysiology II Pharmacology II TOTALS

202

1-0-0 3-0-3 4-0-4 3-0-3 3-0-3 0-2-1 3-2-4 3-3-4 2-2-3 3-0-3 3-0-3 2-2-3 2-0-2 3-3-4 3-0-3 3-3-4 3-2-4 17-4-18

13-7-16

14-8-17

3-0-3 3-3-4 3-0-3 3-2-4 3-0-3 3-6-5 2-3-3 3-0-3 4-0-4 3-0-3 4-9-7 2-0-2 4-0-4 2-0-2 15-5-17

15-9-18

12-9-15

------------QUARTER-----------7 8 9

JUNIOR YEAR NU-330 MA-315 NU-300 HU-332

NU-390 SS-466 NU-340 NU-360 MS-2225

3-12-7 3-0-3 3-0-3 3-0-3 0-0-0

Nursing Care of Clients with Episodic Health Challenges II Nursing Research Abnormal Psychology Elective (SS)

3-12-7 3-0-3 3-0-3 3-0-3

Nursing Care of Clients with Chronic Health Challenges Nursing Care of the Community Elective (HU) Healthcare Economics TOTALS

3-12-7 3-3-4 3-0-3 3-0-3 12-12-16

12-12-16

12-15-17

SENIOR YEAR NU-4600 NU-4700 NU-333

NU-4710 SS-461 NU-4960 NU-485 NU-486 NU-4970

Nursing Care of Clients with Mental Health Challenges Nursing Care of Clients with Complex Chronic Health Challenges Contemporary Issues in Nursing Elective (HU) Elective (SS)

3-0-3 3-12-7 2-0-2 3-0-3 3-0-3

Nursing Care of Clients with Complex Episodic Health Challenges Organizational Psychology Nursing Leadership and Professional Orientation I Elective

4-12-8 3-0-3 1-3-2 3-0-3

Nursing Clinical Elective Synthesis of Nursing Care Nursing Leadership and Professional Orientation II TOTALS

Nursing

NU-331

Nursing Care of Clients with Episodic Health Challenges I Nursing Statistics Transcultural Nursing Bioethics

14-12-18

2-12-6 4-0-4 2-3-3 11-15-16

8-15-13

Electives: All students must take 15 credits of electives. Six credits must be humanities (HU); six credits must be SS electives and three credits are satisfied by SS courses in curriculum track. In addition, students must take one threecredit free elective course. Students should consult with academic advisors for options and planning.

203

Physics and Chemistry Department Main Office: Fred F. Loock Engineering Center, S-236 Phone: (414) 277-7349 Fax: (414) 277-2878 Website: www.msoe.edu/phychem The Physics and Chemistry Department contributes to the mission of MSOE in two distinctly different ways. The department offers a bachelor of science degree in the dynamic field of biomolecular engineering, and minors in physics and chemistry. In addition, the department meets the basic science education needs at MSOE by offering all required courses in physics, chemistry and biology. The full range of up-to-date experimental facilities in the Physics and Chemistry Department produce a well-rounded laboratory experience for all students. Faculty challenge the curiosity and intellect of students by offering a variety of elective courses. The department strives to become a hub for the development and application of novel molecular and nano-engineering tools, including regulatory pathways and new materials and approaches that are the focus of applied and basic research in industry, academia and medicine. Furthermore, the department provides education and expertise in the following areas: • general and applied physics: focused on preparation for graduate school or personal enrichment by offering a variety of elective courses leading to a Minor in Physics. • general, organic and biochemistry: focused on preparation for graduate work in science or medicine and leading to a Minor in Chemistry. • materials science: complements any engineering education through an in-depth study of new materials and how microscopic properties define macroscopic properties of materials. • optics and photonics: optical communication and the extension of electronics to the optical realm. This sequence is a special emphasis option in the Minor in Physics and counts for an application domain elective sequence for students in software engineering.

Faculty: Chairman: Dr. Matey G. Kaltchev Administrative Assistant: J. Ann Aubuchon Technical Support Staff: Victoria Pink, Richard A. Wolter, Nathan Yoder Professors: Dr. Gul Afshan, Dr. Matey G. Kaltchev, Jeffrey B. Korn, Dr. A. James Mallmann, Dr. Steven P. Mayer, Dr. Vipin Paliwal, Dr. Anders H. Schenstrom Associate Professors: James W. Dieball, Dr. Richard R. Mett, Dr. Anne-Marie Nickel, Dr. Robert Olsson Assistant Professors: Dr. Agnieszka Janiak, Dr. Nazieh Masoud, Dr. Katarina Midelfort, 204

Physics and Chemistry Department Electives The department offers a variety of elective courses. The specific courses and the number of courses offered in any given quarter vary depending on enrollment and student interest. For 2011-2013, the tentative schedule is as follows: Fall 2011

PH-322 PH-352 SC-370

Introduction to Optics and Photonics Quantum Physics Geology and Geophysics

Winter 2011-12

CH-302 CH-322 PH-320

Chemistry III Organic Chemistry II Lasers and Applications

Spring 2012

CH-303 CH-323 CH-353 PH-324 SC-310

Chemistry III Laboratory Organic Chemistry III Laboratory Fundamentals of Environmental Chemistry Fiber Optics and Fiber Optics Sensors Nanoscience and Nanotechnology

Fall 2012

PH-322 PH-354

Introduction to Optics and Photonics Nuclear Power, Applications and Safety

Winter 2012-13

CH-302 PH-320 PH-342

Chemistry III Lasers and Applications Relativity and Cosmology

Spring 2013

CH-303 CH-353 CH-324 PH-341 SC-310

Chemistry III Laboratory Fundamentals of Environmental Chemistry Fiber Optics and Fiber Optics Sensors Astronomy and Astrophysics Nanoscience and Nanotechnology

Physics and Chemistry

Dr. Faisal Shaikh Instructors: Ruth A. Schwartz, Joyce M. Solochek Adjunct Professors: Dr. Ellis D. Avner, Dr. Amy M. Brower, Dr. Michael J. Dunn, Dr. Mark T. Harris, Dr. Micheal H. Patrick, Dr. Reza Shaker, Dr. Gilbert C. White Adjunct Associate Professors: Dr. George Gurria, Dr. Timothy M. Herman Adjunct Assistant Professors: Dr. Ann F. Batiza, Dr. John Boudry, Dr. Mitchell Colton, Dr. Eryn Hassemer, Dr. Sarah Hosseini Lecturers: Stephen J. Augustine, Linda Daniels Professors Emeriti: Dr. Robert W. Braun, Dr. Carol B. Diggelman, Dr. Ronald A. Kobiske, Brigita Kore-Kakulis, Janina Levy, Harry A. Schopler

205

Bachelor of Science BioMolecular Engineering Program Director: Dr. Gul Afshan Office: CC-252 Phone: (414) 277-7211 Fax: (414) 277-2878 E-mail: afshan@msoe.edu Biomolecular engineering is a diverse, application-driven discipline in the areas of medical, agricultural, environmental, biotechnical and other life-science fields. International chemical, biological and nanotech industries seek engineering graduates who are prepared to work at a molecular level in life-science related fields. Biomolecular engineering (BioE), a four-year bachelor of science degree program at MSOE, meets this need. The curriculum of the BioE program is a balanced combination of application-driven engineering, science, computational and biotechnology courses. Along with rigorous laboratory, math and science training, these courses address the cross-disciplinary nature of biomolecular engineering. Biomolecular engineers work at the interface of engineering and molecular biology to solve engineering problems, improve current products and processes and develop new products and processes at the molecular level.

206

Additional features of the BioE program: • the curriculum of the BioE program prepares graduates to handle the changing faces of the bio- and nano- industries thus allowing flexibility of career opportunities in a dynamic job market. Recent developments in this field have positively impacted the human condition, via the development of biotechnological systems and devices. • the curriculum prepares graduates to pursue quality graduate programs nationally and internationally. • graduates can follow a pre-med option by taking a few supplementary courses • the curriculum is flexible enough for students to pursue a physics, chemistry or math minor along with the degree in BioE. • the BioE program at MSOE promotes equal academic and professional opportunities for all.

BioMolecular Engineering

The biomolecular engineering program at MSOE enables BioE students to: • gain a solid foundation in basic mathematics and sciences. • learn and apply theoretical principles in modern and well-equipped laboratories. • experience involved discussions with industrial and academic contacts via a series of seminar courses that emphasize biomolecular engineering design and foster academic and professional discussions, group learning and entrepreneurship. • work at the molecular level with simple and complex molecules through courses that cover concepts of thermodynamics, transport phenomena, cell engineering, biophysics, bioinformatics, nanotechnology and genomics. • learn cell culture and its applications in the design and development of therapeutics and diagnostic products through the BioE program’s cell culture facility. • mathematically model biomolecules and biological processes and quantitatively measure, visualize and analyze with instruments like the atomic force microscope. • learn concepts of rapid prototyping and biomolecular modeling through MSOE’s Center for BioMolecular Modeling (CBM) and Rapid Prototyping Center (RPC). • engineer new or improved bioactive compounds or improve process efficiencies for such systems via senior design experience.

Program Mission Produce well-rounded, technologically experienced graduates and highly productive professionals and leaders who understand biological systems and the engineering skills that affect the living systems and in particular understand products and processes at the molecular and cellular levels.

Program Objectives Professional Skills: BioE graduates will possess skills that are required to function as entry level engineers and that will help them in a variety of industrial settings. They will demonstrate continuous professional development and planning to ensure their own success as well as the success of those around them through their concrete academic skills and a versatile but reliable practical background of analytical abilities and technical skills developed through real-world experiences. BioE alumni will be able to solve interdisciplinary engineering problems and will be professional role models for the next generation of students at MSOE and elsewhere because of their professionalism, work ethic and accomplishments.

207

High Sense of Excellence and Achievement: BioE alumni will exhibit professional and ethical responsibility and be recognized by a variety of industries for both their up-to-date engineering skills and for their comprehensive expertise as they compete for positions in local, state, national and international industries and enter high-quality graduate programs throughout the country. Social Skills: BioE alumni will display valuable communications, management and leadership skills associated with the practical and professional aspects of biomolecular engineering. They will function creatively and independently in a diverse range of cultural and workplace settings. These engineers will understand their profession as one with a high impact on the immediate and future social, and economic issues and on the condition of life itself. They will accept and tackle these issues with respect, responsibility and a professional legal and moral code.

Program Outcomes: Graduates of the biomolecular engineering program will: • apply knowledge of basic sciences, including physics, mathematics, biology, systemic chemistry, biochemistry, molecular biology and biomolecular engineering. • perform biomolecular engineering experimentation, including hypothesis formulation, model development, measurements with positive and negative controls, data analysis and data interpretation. • apply acquired knowledge especially for the integration of molecular information into analysis and design of chemical and biological processes and products. • function on multidisciplinary teams with professional ethics. • develop criteria by which to rank the merits of feasible solutions. Identify, devise and solve biomolecular engineering problems. • understand professional and ethical responsibility. • communicate effectively with colleagues and with nontechnical audiences, in oral, written and graphical forms. • understand the direct and indirect impact of biomolecular engineering on contemporary scientific issues in a global, economic, environmental and societal context. • recognize the need for a lifelong learning approach towards new professional ideas. • exhibit knowledge of contemporary issues. • demonstrate the use of technical skills, tools, equipment and safety rules associated with biomolecular engineering practice. • display a thorough foundation in the basic sciences and sufficient knowledge in the concepts and skills required to design, analyze and control physical, chemical and biological processes in the field of biomolecular engineering.

Future Directions Important areas of biomolecular engineering such as bioinformatics, bioremediation, bio-nanotechnology and genetic therapeutics can be offered as concentrations of the program in the future.

208

BACHELOR OF SCIENCE BIOMOLECULAR ENGINEERING Model Full-time Track - V1.1

FRESHMAN YEAR OR-100 EN-131 MS-184

EN-132 MA-137 BI-102 CH-201 EB-1100

Technical Composition Calculus for Engineers II Cell Biology and Genetics Chemistry II BioMolecular Engineering Seminar I

EN-241 HU-100 MA-231 CH-222 PH-2010

Speech Contemporary Issues in the Humanities Calculus for Engineers III Organic Chemistry I Physics I - Mechanics TOTALS

SOPHOMORE YEAR BE-2200 MA-235 CH-223 PH-2020 EB-2000 SS-461 MA-232 PH-2030

Computing in Biomedical and BioMolecular Engineering Differential Equations for Engineers Biochemistry Physics II - Electromagnetism and Optics BioMolecular Lab Safety and Ethics2

BI-2020 EB-2100 EB-2240

Organizational Psychology Calculus for Engineers IV Physics III - Thermodynamics and Quantum Physics Cellular Microbiology BioMolecular Engineering Seminar II Engineering Applications in Biochemistry

CS-2550 MA-262 EB-2410 EB-2510 EB-2910

Concepts of Data Structures and Algorithms Probability and Statistics Principles of Biotechnology Thermodynamics I Genomics in Engineering TOTALS

1-0-0 3-0-3 3-0-3 4-0-4 3-2-4 1-0-1 3-0-3 4-0-4 3-3-4 3-2-4 1-0-0 2-2-3 3-0-3 4-0-4 2-2-3 3-3-4 15-2-15

14-5-15

14-7-17

3-3-4 4-0-4 3-2-4 3-3-4 1-0-1

BioMolecular Engineering

MA-136 CH-200 EB-1000

Freshman Orientation1 Composition Introduction to Computer Methods and Applications Calculus for Engineers I Chemistry I Introduction to BioMolecular Engineering

------------QUARTER-----------1 2 3

3-0-3 3-0-3 3-3-4 3-3-4 1-0-0 2-2-3 2-2-3 3-0-3 2-2-3 4-0-4 3-0-3 14-8-17

15-8-17

14-4-16

209

------------QUARTER-----------7 8 9

JUNIOR YEAR MS-2220 MA-3710 EB-3410 EB-3510 EB-3610

Foundations of Business Economics Mathematical Biology Applications of Biotechnology Thermodynamics II Transport Phenomena I

OR-402 MS-331 PH-3710 EB-3100 EB-3420 EB-3620

Professional Guidance Business Law Introduction to Biophysics BioMolecular Engineering Seminar III Bioinformatics I Transport Phenomena II

EB-3430 EB-3530 EB-3560 EB-3570

Bioinformatics II Cell Culture Laboratory for BioMolecular Engineers Unit Operations-Production Scale Bioseparations Kinetics and Bioreactor Design Elective3 TOTALS

SENIOR YEAR EB-4000 EB-4200 EB-4510 EB-4910

Biopolymer Engineering Bioanalytical Instrumentation Process Design and Control BioMolecular Engineering Design I Elective3

EB-4100 EB-4300 EB-4920

BioMolecular Engineering Seminar IV Metabolic Engineering and Synthetic Biology BioMolecular Engineering Design II Elective3 (6 credits)

HU-432 EB-4400 EB-4520 EB-4930

Ethics for Professional Managers and Engineers Molecular Nanotechnology Engineering of Controlled Drug Delivery BioMolecular Engineering Design III Elective3 TOTALS

3-0-3 3-0-3 2-2-3 4-0-4 4-0-4 1-0-1 3-0-3 3-0-3 1-0-1 2-2-3 4-0-4 2-2-3 1-4-3 2-4-4 4-0-4 3-0-3

16-2-17

14-2-15

12-10-17

3-0-3 1-4-3 3-0-3 3-3-4 3-0-3 1-0-1 2-3-3 3-3-4 6-0-6 3-0-3 3-0-3 2-2-3 3-3-4 3-0-3 13-7-16

12-6-14

14-5-16

1 Transfer

students who have completed 36 quarter or 24 semester credit will be waived from OR-100, but will be required to complete OR-301 Transfer Student Orientation.

2 This

course must be taken no later than sophomore year. This course must be passed in order to be part of any biomolecular lab experiments and senior design projects.

3 There

are 15 credits of elective subjects in the biomolecular engineering program that must be taken as follows: 6 credits of Humanities (HU); 6 credits of Social Sciences (SS); and 3 additional credits of either Humanities (HU) or Social Science (SS).

210

Chemistry Advisors:

Biochemistry Dr. Gul Afshan Office: S-244 Phone: (414) 277-7211 Fax: (414) 277-2878 E-mail: afshan@msoe.edu

General Chemistry Joyce Solochek Office: S-246 Phone: (414) 277-7444 Fax: (414) 277-2878 E-mail: solochek@msoe.edu

Regularly scheduled elective courses in chemistry include: CH-302/-303

CH-353 SC-310

In addition to scheduled electives, the department faculty offers students with interest in particular areas an opportunity to work one-on-one with a faculty member as part of an Independent Study, CH-499. (Freshmen and sophomores may request a “Project” course, CH-199.) Groups of students may also petition the faculty to offer a course different than the scheduled electives. Faculty areas of expertise under which they will offer Independent Study and specialty courses include:

Chemistry

CH-322/-323

Chemistry III and Chemistry III Lab Third quarter of General Chemistry to complement CH-200/-201 Organic Chemistry II and Organic Chemistry II Lab Completes a year of Organic-/Bio-Chemistry together with CH-222/-223 Fundamentals of Environmental Chemistry Nanoscience and Nanotechnology

Application of Surface Science to Modern Technology – Professor Matey Kaltchev The number and importance of these applications provide a wonderful opportunity for the students to choose project topics and enhance their knowledge in various areas of cutting-edge technology. Areas include, but are not limited to, the application of surface science in heterogeneous catalysis (automotive and environmental catalysis, fuel cell technology, new energy sources, etc.), the unique world of Nanotechnology for the development of novel materials and devices, and Tribology, the science of friction, so important and much studied and yet so poorly understood, etc. Hands-on experience with state-of-the-art equipment and scientific tools commonly used to study processes at surfaces will help to better prepare the students for the challenges of their modern engineering professions. Biology of Viruses – Professor Gul Afshan Mankind has always been under the threat of new and more dangerous viruses. Emerging and modern transportation systems make it all the easier for a virus to spread quickly throughout the world. However, it is worth noting that viruses have always been with us, evolving ways to reproduce and spread. Viruses, like humans, are just playing the evolution game. But viruses cheat! Course topics include: • the origin of viruses • classes of animal and plant viruses and their characteristics • mechanisms and tactics used by viruses to invade their hosts • vaccinia, virus or small pox vaccine • effects of viral infections on host cells • discussions on new and often extremely virulent viruses, such as HIV-1 and HIV- 2, Ebola and Marburg. 211

Chemistry of Materials – Professor Anne-Marie Nickel The chemical structure and composition of metals, semiconductors, metal alloys, solid solutions, polymers, and crystalline and magnetic materials play a significant role in the properties of these materials. Tools of materials chemistry include scanning probe microscopes (SPM) and X-ray diffraction. Using the fundamentals of chemistry, we will investigate these properties and understand how subtle changes in atomic structure can yield dynamic changes in how the materials can function and be used. Inorganic Chemistry – Professor Anne-Marie Nickel Inorganic chemistry surveys the diverse chemistry of all of the elements in the periodic table. This makes the subject very diverse and includes many different and exciting subjects in chemistry including main group, coordination, solid-state, materials, bioinorganic and organometallic chemistries. The relevance of each topic to real life applications and current research will be investigated. Nanotechnology – Professor Anne-Marie Nickel Extraordinary materials and properties can be obtained from the control of materials at the nanoscale by manipulating atoms and molecules. We will discuss how properties of materials understood at the macro and microscale can differ significantly at the nanoscale. The tools used to manipulate atoms, molecules and materials will be covered. A survey of current research in nanotechnology will demonstrate how the topics discussed in the course apply to new technological advances. Nuclear Chemistry and Society – Professor Anne-Marie Nickel Whether through the treatment or cause of cancer, the consumption of irradiated foods, or the benefits of nuclear power, nuclear chemistry plays a role in nearly everyone’s life. In fact, nuclear chemistry has influenced and affected entire populations. A survey of the uses of nuclear chemistry will be discussed. Included in these discussions will be the benefits and costs of using nuclear chemistry to society.

212

Minor in Chemistry Coordinator: Dr. Anne-Marie Nickel Office: S-253 Phone: (414) 277-7528 Fax: (414) 277-2878 E-mail: nickel@msoe.edu

General Requirements To qualify for a Minor in Chemistry, a student must take 28 credits of eligible courses. This must include a minimum of 17 credits from the list of approved courses, six credits of which must be from courses not specifically required for the studentâ€™s major. At least 50 percent of all credits towards the minor must have been earned in residence at MSOE, including six credits from the list of approved courses. A minimum GPA of 2.00 is required for courses that are counted towards the minor. No more than four credits of approved courses without the CH-xxxx designation will count towards the minor. Required Courses (11 credits) CH-200 Chemistry I CH-201 Chemistry II CH-222 Organic Chemistry I

Chemistry

A student enrolled in a degree program at MSOE may also earn a Minor in Chemistry. Upon completion of the requirements, students would have a solid foundation in chemistry. The interdisciplinary nature of current research and technology may motivate students to learn more chemistry. MSOE graduates may elect to develop a stronger background in chemistry in order to participate in a variety of fields including: pharmaceutical industry, health care, regenerative medicine, nanotechnology, environmental science, materials science, polymers, plastics and alternative fuel sources.

Credits 4 4 3

In addition, a student must select 17 credits of courses from the list below. Some of these courses are offered as part of the regular course offerings, others are only offered if there is sufficient student interest, and many are on a two-year rotating schedule. The Physics and Chemistry Department is committed to offer enough courses for the chemistry minor within every four years, however there is no guarantee of availability of any particular course in any particular quarter. Approved Courses Credits CH-223 Biochemistry 4 CH-302 Chemistry III 3 CH-303 Chemistry III LAB 1 CH-322 Organic Chemistry II 3 CH-323 Organic Chemistry II LAB 2 CH-353 Fundamentals of Environmental Chemistry 3 CH-354 Fundamentals of Environmental Chemistry LAB 1 CH-3650 Chemistry of Materials 3 CH-3660 Surface Properties of Materials 3 CH-3670 Polymer Chemistry 3 CH-3680 Inorganic Chemistry 3 CH-3690 Molecular Mechanism of Biological Activity 1 CH-401 Topics in Chemistry 3 SC-308 Environmental Science 3 SC-310 Nanoscience and Nanotechnology 3 SC-311 Nanoscience Laboratory 1 EB-2240 Engineering Applications in Biochemistry 3 213

Minor in Physics Coordinator: Dr. Robert Olsson Office: S-244 Phone: (414) 277-7314 Fax: (414) 277-2878 E-mail: olsson@msoe.edu The Minor in Physics is offered to those students who wish to expand their background and understanding of physics. A Minor in Physics will also augment any studentâ€™s specialty, and make his/her degree more attractive to potential employers. To qualify for a Minor in Physics, a student must take 28 credits of eligible courses. This must include a minimum of 12 credits from the list of approved courses, six credits of which must be from courses not specifically required for the studentâ€™s major. At least 50 percent of all credits towards the minor must have been earned in residence at MSOE, including six credits from the list of approved courses. A minimum GPA of 2.00 is required for courses that are counted towards the minor. Interested students should contact the coordinator for the physics minor, for clarification of the extent to which free, technical and math/science electives may be used in fulfilling the requirements for the minor. Required Courses (12 credits) PH-2010 Physics I - Mechanics PH-2020 Physics II - Electromagnetism and Optics PH-2030 Physics III - Thermodynamics and Quantum Physics

Credits

4 4 4

Approved Courses (16 credits) PH-320 PH-322 PH-324 PH-325 PH-341 PH-342 PH-352 PH-354 PH-360 PH-401 EE-3203 ET-3201 EE-3210 SC-310

Lasers and Applications Introduction to Optics and Photonics Fiber Optics and Fiber Optic Sensors Acoustics and Illumination Astronomy and Astrophysics Relativity and Cosmology Quantum Physics Nuclear Power, Applications and Safety Physics of Electronics Topics in Physics Electric and Magnetic Fields or Electromagnetic Field Concepts Electromagnetic Waves Nanoscience and Nanotechnology

3 3 3 3 3 3 3 3 4 variable credits 4 4 3 3

Some of the approved courses are offered as part of the regular course offerings, others are only offered if there is sufficient student interest, and many are on a twoyear rotating schedule. There is no guarantee of availability of any particular course in any particular quarter. Changes in course offerings that will meet the requirements of the minor will be indicated in the Schedule of Classes and in the Undergraduate Academic Catalog. Alternative:

214

PH-113 or PT-110, PH-123 or PT-220, PH-361, and 16 additional credits from the list of approved courses.

Applied Optics and Photonics Emphasis:

Credits

PH-320 Lasers and Applications 3 PH-322 Introduction to Optics and Photonics 3 PH-324 Fiber Optics and Fiber Optic Sensors 3 PH-360 Physics of Electronics 4 Regular course scheduled each Fall and Winter Quarter Note: PH-320, PH-322 and PH-324 constitute an application domain elective sequence for software engineering students. Applied Physics Emphasis:

3 3 4 4

General Physics:

PH-341 Astronomy and Astrophysics PH-342 Relativity and Cosmology PH-352 Quantum Physics EE-320 Electric and Magnetic Fields Regular course offering from the EECS Department

3 3 3 4

Physics

PH-325 Acoustics and Illumination PH-354 Nuclear Power, Applications and Safety PH-360 Physics of Electronics Regular course scheduled each Fall and Winter Quarter. EE-320 Electric and Magnetic Fields Regular course offering from the EECS Department

In addition to scheduled electives, the physics faculty offers students with interest in particular areas an opportunity to work one-on-one with a faculty member as part of an “Independent Study,” PH-499. (Freshmen and sophomores may request a “project” course, PH-199.) Groups of students may also petition the faculty to offer a course different than the scheduled electives. Faculty areas of expertise under which they will offer Independent Study and specialty courses include, but are not limited to, the areas of: Renewable Energy Unification Theories Quantum Computing Interested students may contact any department faculty member.

215

Two-degree Programs MSOE offers several options for students to earn a second degree that complements their major area of study. Double-major options provide the opportunity for students to earn a second bachelor's degree within five years. Dual-degree options allow students to earn a bachelorâ€™s degree and masterâ€™s degree during a five year period of study. Students have until their junior year to enroll in a two-degree program, but they may begin earlier. If students decide to enroll after their junior year has begun, they may still do so, but late enrollment may extend completion of the program beyond five years. Several double-major and dual-degree options have specified curriculum tracks. Double-major options not listed below may be available and will be governed by the policy detailed in this catalog: Graduation Requirements: Undergraduate Doublemajor Candidate.

Double-major and Dual-degree Program Options The following chart indicates which bachelor of science degree programs are eligible for double-major or dual-degree options:

Double-major programs

Bachelor of Science in Architectural Engineering

Bachelor of Science in Construction Management

Bachelor of Science in Business Management

Bachelor of Science in Technical Communication

Bachelor of Science in BioMolecular Engineering

Master of Science in Civil Engineering

Bachelor of Science in Biomedical Engineering

Bachelor of Science in Computer Engineering

Bachelor of Science in Electrical Engineering

Bachelor of Science in Industrial Engineering

Bachelor of Science in Management Information Systems

Bachelor of Science in Mechanical Engineering

Bachelor of Science in Technical Communication

Master of Science in Structural Engineering

Bachelor of Science in Civil Engineering

216

Dual-degree program

Bachelor of Science in Architectural Engineering and Construction Management Combining architectural engineering and construction management studies to earn two B.S. degrees in five years is a relatively popular option ... rightfully so! Blending design engineering skills with construction project management abilities provides a powerful combination of complementary professional disciplines for an industry that increasingly seeks the most qualified employees for the most challenging and rewarding work, then pays them well when they succeed. Details about the AE and CM degrees are provided in an earlier section of this catalog.

Bachelor of Science in Business Management

MSOE’s Rader School of Business offers a Bachelor of Science degree in Business Management to complement an engineering degree through MSOE’s double-major program. By taking business management courses concurrently with engineering courses, students learn how to apply their technical skills to real-world business and financial situations. Approximately 15 courses in business management are taken concurrently with a student’s chosen engineering curriculum to give the student two degrees in five years. Some key classes in the program include the following:

Two Degree Programs

MSOE’s business management program was established with the understanding that business is driven by rapidly changing technology. Since computers are the most important tools in business, MSOE’s business management curricula is centered around the latest technological developments in computers.

business and government relations, e-business, organizational behavior, project management, employment law, economics, accounting, finance, marketing, international business, operations management, management policies and business communications. When registering for a double-major program in engineering and business management, students should see the chairman of the Rader School of Business.

Freshman-to-Master’s Degree in Civil Engineering One of the truly unique features of MSOE’s civil engineering (CVE) program is that graduates can receive both their bachelor's and master's degrees in five years. It has been designed to meet the new Body of Knowledge for the 21st Century requirements developed by the American Society of Civil Engineers (ASCE). At MSOE, civil engineering course work provides a broad-based education touching on each of the traditional areas within the civil engineering field. Students will then gain in-depth proficiency and design skills in one of these three areas: structural engineering, environmental engineering or water resources engineering. For more information about the civil program, turn to page 63.

Bachelor of Science in Technical Communication MSOE’s technical communication program produces graduates who are able to communicate technical knowledge effectively to others. There is a growing need for technical communicators, since we live in an era of technological change. With MSOE’s double-major program, the engineer or business specialist is trained to communicate facts about technical devices and operations to the public, consumers, employers and co-workers in other areas of specialty. Since courses in 217

engineering and communication are taken simultaneously, students may enjoy hands-on laboratory work in one class and write about that experience in the next class. These are vital skills for the engineer or business specialist in today’s rapidly changing technological frontier. Approximately 19 courses in technical communication are taken concurrently with a student’s chosen engineering or business curriculum for this option of the doublemajor program. Some key classes in the technical communication program include the following: report and proposal writing, desktop publishing, mass communication, writing and editing for publication, visual design techniques, research methods, speech, persuasive speech, professional presentation skills, human communication, group discussion, intercultural communication, interpersonal communication, organizational communication, marketing communication and student internship The number of required technical communication courses in a double-major program varies with the engineering or business program selected. A course schedule can be designed for students upon commitment to the program. When preregistering for a double-major program that includes technical communication, students should meet with the program director for technical communication.

Master of Science in Structural Engineering This program emphasizes building structural design and analysis, and meets the needs of students who desire increased knowledge to design modern building structural systems. Courses focus on structural design topics such as advanced design of structural steel members and systems. Courses on advanced structural analysis are also presented to provide a broader theoretical background for structural design. Students with an appropriate undergraduate degree can complete the program in five years on a part-time basis or as little as two years on a full-time basis. (See the MSOE Graduate Catalog for more information.) The dual-degree program allows a student to obtain a bachelor’s degree in architectural engineering and a master’s degree in structural engineering in five years. The dual-degree program follows the first three years of the undergraduate curriculum for the Bachelor of Science in Architectural Engineering degree (structural specialty), and then mixes undergraduate and graduate courses during the fourth and fifth years. Upon completion of the fifth year, the bachelor’s and master’s degrees are awarded simultaneously. An alternative program allows a student to replace select undergraduate level courses with graduate level courses during the fourth year of the Bachelor of Science in Architectural Engineering program (structural specialty). Upon completion of the bachelor’s degree, the student can return and complete the Master of Science in Structural Engineering program in one additional year on a full-time basis, or take up to four years to complete the graduate program on a part-time basis. Interested students should meet with the Master of Science in Structural Engineering program director during their sophomore and junior years for further explanation of their options. Students apply to the dual-degree program at the beginning of the Spring Quarter in their junior year.

218

Graduate Studies Programs For a Graduate Catalog and more information on any of these programs, please call (800) 332-6763, or (414) 277-6763 in the Milwaukee area.

Master of Science in Construction and Business Management The new Master of Science in Construction and Business Management degree was created in conjunction with the Rader School of Business and the Architectural Engineering/Building Construction Department. The degree targets professionals who are working in, or have experience in, the construction industry. It teaches professionals the leadership tools necessary to compete in the ever-changing and highly competitive construction management environment. It provides students with advanced skills and understanding in construction project administration and business management.

Master of Science in Engineering The Master of Science in Engineering (MSE) program enables graduate engineering professionals to further their problem solving skills through the application of advanced engineering principles and methods. The strength of this program is in its flexibility. The program offers students the opportunity to advance their quantitative skills through a series of mathematics and modeling based courses; and provides for their choice of specialty courses in electrical engineering or mechanical engineering and/or other related fields.

Graduate Studies

Courses are focused on business development, new and emerging technologies for construction and project delivery systems, and executive administration of construction firms. The degree prepares graduates for upper-management positions in the construction industry.

The MSE is aimed toward engineers who are involved with industrial projects. Students are encouraged to take engineering courses both within and outside their discipline. Courses include topics such as simulation and modeling, operations research, quality engineering, advanced engineering mathematics, finite element analysis, advanced mechanics, fluid power systems, data communications, control systems and advanced electronic systems. A nine credit capstone engineering project option is included as part of the program. The non-project option is also available, which includes two specialty courses and a three credit engineering paper in the specialty.

219

Master of Science in Engineering Management The Master of Science in Engineering Management (MSEM) program is a technology-oriented management degree designed to meet the needs of engineers, business managers, and other professional and technical personnel desiring to strengthen their management and leadership skills. Graduates of the program possess broad business management knowledge and skills and are prepared to move into general management positions in a wide range of industries. The MSEM program is based on the philosophy that, for companies to grow and compete domestically and internationally, their managers and leaders need a deep understanding of technology, management and effective leadership principles. Faculty members have extensive business experience and are committed to mentoring students to increase studentsâ€™ value to current and prospective employers. In addition to their academic qualifications, most are employed in the discipline they teach. Areas of particular emphasis include organizational leadership, project management, operations management, financial management, technical sales and marketing, entrepreneurship, quality and continuous improvement, policy and strategy, supply chain management, and international business. In addition to offering the MSEM program in Milwaukee, the degree program is offered in Appleton, Brookfield, Waukesha, and other Wisconsin areas.

Master of Science in Marketing and Export Management The Master of Science in Marketing and Export Management program (MSXM) is a technology-oriented leadership program designed to meet the needs of engineers, business managers and other professional and technical persons desiring to strengthen their management and leadership skills specifically relating to the valueadded exporting of U.S. manufactured products, services and technology. Graduates of the program possess the broad range of knowledge and skills necessary for management or entrepreneurial positions in a wide range of international markets. The MSXM program is based upon the philosophy that for organizations to effectively compete in the increasingly international marketplace their managers need a deep understanding of global business practices. This knowledge enables graduates to provide the leadership required to enhance the companyâ€™s market presence and competitive value for products and services in a world market. Learning in the MSXM is facilitated by a faculty having extensive knowledge of the global business environment and international markets, as well excelling in a focused business area or field of learning. In addition to their academic qualifications, most are employed in the discipline(s) they teach. Faculty-to-student ratio is kept small to allow extensive interaction among faculty and students. The program offers students a cultural immersion capstone including two weeks of travel to businesses outside the United States.

Master of Science in Medical Informatics Medical informatics is information science applied to health care. More specifically, it is the applied science at the junction of the disciplines of medicine, business and information technology, which supports the health care delivery process and promotes measurable improvements in both quality of care and cost-effectiveness. The mission of the program is to provide an applied graduate educational experience that prepares professionals to participate in and lead multidisciplinary teams in the development, implementation and management of information technology solutions in health care. This program is available on a full- or part-time basis. 220

Master of Science in New Product Management Success in developing and deploying new products depends in large part on providing products that can compete globally, as well as domestically. Effective new product management is a critical success factor for all companies, regardless of their markets. The Master of Science in New Product Management (MSNP) program provides students a framework to enhance an organizationâ€™s ability to effectively identify, develop and deploy new products and services. Students learn how to effectively apply tools and techniques to identify the products and/or services that leverage the unique strengths and position of an organization, including brand identity, reputation, capabilities (current and needed), market opportunities and resources. Further, the MSNP program prepares individuals to identify and capitalize on both domestic and international markets.

Perfusion, the science of supporting or replacing a patientâ€™s circulatory or respiratory function, is an operating room discipline of critical importance in invasive surgery. The program includes extensive clinical experience and emphasizes health science information along with the technology involved in perfusion. The Master of Science in Cardiovascular Studies is a stand-alone degree, as well as an option to the perfusion degree. It offers perfusionists, who currently have a B.S. degree, the opportunity to obtain a masterâ€™s degree without repeating clinical experiences. Additionally, it is available to others who are working or who have a desire to work in a related area, but who do not need the perfusion clinical experience.

Graduate Studies

Master of Science in Perfusion/Cardiovascular Studies

The M.S. in perfusion is available on a full-time basis. The M.S. in cardiovascular studies is available on either a full-time or part-time basis.

221

Reserve Officer Training Corps Main Office: Student Life and Campus Center, CC-377 Phone: (414) 288-7682 Fax: (414) 288-7627 Website: www.msoe.edu/rotc Reserve Officer Training Corps (ROTC) is an educational program that trains students to be officers in the United States military. ROTC students learn leadership skills in college in order to have a successful military or civilian career. Each branch of the armed services has an ROTC program. Scholarship opportunities are available through all the ROTC programs in a variety of academic majors. A description of each of the ROTC programs offered as MSOE follows.

Air Force ROTC Air Force Reserve Officer Training Corps (AFROTC) is an educational program designed to give men and women the opportunity to become Air Force officers while completing a college degree. AFROTC gives students the chance to develop leadership skills in college and prepares students for a successful career in the United States Air Force. Interested students do not need a scholarship offer to participate in Air force ROTC; scholarships are available to qualified students based on their academic and cadet corps performance. Air Force ROTC offers scholarships that cover most or all of a student's college expenses. These scholarships are offered in one-, two-, three- or four-year lengths and can be granted to high school students or current college students. High school students wishing to compete for a scholarship prior to entering college must apply following their junior year and prior to December 1 of their senior year of high school. The scholarship application and application procedures can be viewed at www.afrotc.com. College scholarships are offered in academic majors that meet the needs of the Air Force and are typically offered in the spring term. The AFROTC office at MSOE is located on the third floor of the Student Life and Campus Center (CC) and the AFROTC Detachment is located at the Marquette University, 707 N. 11th street. MSOE students enroll in AFROTC as cross-town students. The required AFROTC courses are taught by the Aerospace Studies faculty from Marquette University normally at the Marquette campus; however classes may be held at MSOE if student numbers/cadre availability can support. All AFROTC students must participate in two physical training sessions per week which are offered at both MSOE and Marquette University and LLAB which is only held at Marquette University. Air Force ROTC units are located on 144 campuses nationwide and have crosstown agreements with more than 1000 additional institutions. For more information, students are encouraged to visit the website www.afrotc.com, the Marquette campus office or call (414) 288-7682.

222

Army ROTC Army Reserve Officer Training Corps (AROTC) is a four-year program offered at hundreds of colleges and universities nationwide. This program trains college students to be officers in the active Army, Army Reserve or Army National Guard. AROTC students will learn the leadership and management skills essential to becoming an Army officer or having a successful civilian career. The Army ROTC mission is to commission the future officer leadership of the U.S. Army. Hundreds of AROTC scholarships are available to students each year. These scholarships are awarded on merit, not financial need. Merit includes academic achievement and extracurricular activities, such as sports, student government or work. AROTC scholarships are awarded to students studying science, engineering, nursing, business and a variety of other academic majors. Any student may enroll in AROTC, regardless of whether he or she has been awarded a scholarship.

ROTC

Army ROTC for Milwaukee colleges and universities is based at Marquette University. Basic AROTC classes are offered on the MSOE campus depending on the number of cadets enrolled from MSOE. Advanced classes are taught on the Marquette campus. All AROTC classes are taught by the Military Science faculty from Marquette University.

223

Navy ROTC The Naval Reserve Officer Training Corps (NROTC) Program provides qualified commissioned officers to the United States Navy and Marine Corps. The mission is to develop midshipmen morally, physically, and intellectually for careers in the United States Naval Service. Graduates who complete all requirements will receive commissions and serve on active duty in the Navy or Marine Corps, with a minimum three-year commitment for non-scholarship students and four-year commitment for scholarship students. All NROTC students fall into one of two broad categories: scholarship or nonscholarship (college program). Some students will enter MSOE with a four-year scholarship earned on a competitive basis while still in high school. Scholarships are for full tuition, fees, a textbook stipend, laboratory expenses and include a subsistence stipend. In addition, MSOE will honor a studentâ€™s MSOE Academic or Transfer Scholarship initially awarded by MSOEâ€™s Admissions Office. At a minimum, MSOE will provide funds to cover a double room and a standard meal plan while receiving a ROTC scholarship. Students not on scholarship are termed college program students. They receive uniforms, naval science text books and a monthly stipend during their junior and senior years. All college program students are eligible to compete for Naval Education and Training Command scholarships. Students are selected on a competitive basis after completing a minimum of one term as an NROTC college program student. A naval science class is required of all NROTC students each term, with few exceptions, for which MSOE grants credit toward graduation requirements. Students who enroll in NROTC at MSOE do so as "cross-town" students. Required NROTC courses are taught by the Naval Science faculty at the Marquette University campus. The remainder of their major is completed at MSOE. Midshipmen on scholarship and junior and senior college program students are also required to attend a paid summer internship for a period of four to six weeks each summer. This training introduces midshipmen to the fleet, and the life of a junior naval officer. Summer training also provides an orientation to each of the different warfare specialties (air, surface, submarine, and Marine Corps). For additional information, contact the Department of Naval Science, Marquette University at (414) 288-7076 or visit our website at www.marquette.edu/rotc/navy/.

224

COURSE DESCRIPTIONS

225

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AE-100

Introduction to Architectural Engineering 2 2 3 and Construction Management This is an interdepartmental, team-taught course. The following topics are presented from the CAECM Department: an overview of the architectural engineering and construction management programs and five-year and dual degrees; career paths in architectural engineering and construction management; and the constructorâ€™s role and the design process in architecture, structural, environmental and electrical systems engineering. An architectural conceptual design project is completed by a team of students and the design process is discussed. Presentations of student projects are required in the various phases of completion. The students also learn team building skills and relationships in this team project. The General Studies Department faculty introduce topics to develop the studentsâ€™ academic, personal and interpersonal skills that help in college and create a sense of campus involvement. The oral presentation and written expression skills are enhanced with class participation and feedback. AE-1231 Building Construction Materials 3 2 4 This course is a study of the properties of construction materials, methods of manufacturing and installation. Materials include wood, steel, concrete, masonry, asphalt and gypsum as components of architectural engineering. A laboratory reinforces the principles presented in lecture. (prereq: one year high school chemistry or CH-090) AE-130 Architectural Engineering Graphics 2 2 3 This is an introduction to basic graphic communication skills needed by architectural engineers. Topics covered include lettering and line weights, views of structures in plan elevation, section, isometric and perspective. Also, as part of this course the student is exposed to basic building systems. Introductory AutoCAD is used in two drawings. (prereq: AE-1311) AE-1301 Architectural Engineering Graphics 1 2 1 This second course in the graphics sequence for AE and CM students covers basic graphic and communication skills needed by architectural engineers. Topics covered include lettering and line weights, views of structures in plan, elevation, section, isometric and perspective. Also, as part of this course the student is exposed to basic building systems. Graphics are produced using drafting, freehand and CAD. (prereq: AE-1312) AE-1311 Introduction to CAD 1 1 1 This class teaches the basics of 2-D CAD architectural drafting. The CAD program used is AutoCAD. No previous CAD experience is required. General CAD topics include basic drawing, editing and copying, along with dimensioning and text insertion. Specific AutoCAD functions include blocks, attributes and the use of layers. This course cannot be taken for credit by either AE or CM majors. AE-1312

Introduction to Building 1 2 1 Information Modeling I This first course in the graphics sequence for AE and CM students teaches the basics of CAD drafting and Building Information Modeling (BIM). The CAD programs used are AutoCAD and REVIT Building. No previous CAD experience is required. General CAD topics include basic drawing and editing of details in AutoCAD, 3D building modeling, and an introduction to the concept of utilizing REVIT Building to produce estimates. (prereq: none) AE-200 Statics 4 0 4 Statics is a study of force systems acting on rigid bodies not in motion. The analysis includes forces acting in and on beams, trusses and frames in equilibrium. Topical content includes 2-D and 3-D systems, free body diagrams, pulley systems, friction, centroids and moments of inertia. Analysis includes both scalar and vector methods. (prereq: MA-137; coreq: PH-2010) AE-201 Strength of Materials 4 0 4 This course is the study of stress and strain of elastic bodies. Areas covered are analysis of statically determinate beams; shear and moment equations and diagrams; flexural and shear stress; double integration method; and axial, torsional and thermal loads of statically indeterminate systems and columns. (prereq: AE-200) 226

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AE-2011 Mechanics of Materials I 3 0 3 This course is the study of stress and strain of elastic bodies. The focus of the course includes Hookeâ€™s Law and stress and strain due to axial force, torsion, bending moment, and shear force. Statically indeterminate structures with axial and torsional loadings are also studied. (prereq: AE-200, PH-2010) AE-2012 Mechanics of Materials II 3 0 3 This course continues the development of elastic solid mechanics. Areas covered are stress transformation and principal stresses, deflection of statically determinate beams and an introduction to the analysis of statically indeterminate beams, elastic buckling of columns, and energy methods. (prereq: AE-2011) AE-2121 Fundamentals of Thermodynamics 4 0 4 This course provides AE and CM students with the necessary fundamentals of thermodynamics as they relate to building thermal systems and applications. Topics cover a range of principles from basic energy and mass balances to refrigeration cycles and heat exchangers. (prereq: MA-137, PH-2010) AE-213 Introduction to Fluid Mechanics 4 0 4 This course covers the basic principles of fluid mechanics necessary for the design of building plumbing and fire protection systems, and for the design of air duct systems in building HVAC systems. Specific topics covered include: (1) introduction to basic fluid properties such as specific weight and viscosity, and an introduction to the concept and measurement of pressure, (2) the continuity equation for incompressible, steady flows, (3) the steady flow energy equation for incompressible, adiabatic fluid flow, and its simplified form the Bernoulli equation, (4) computation methods for frictional and minor losses in closed channel flow, (5) Manningâ€™s equation for open channel flow, (6) introduction to flow measuring devices, (7) basic principles of pumps, fans, compressors, and blowers, and (8) an introduction to plumbing and fire protection system design through the use of various, applicable case studies throughout the course, but especially during the last week of the course. (prereq: AE-2121) AE-2211 Building Construction Methods 3 2 4 This course provides familiarity with the crew labor and equipment activities typically applied in building construction. Emphasis is placed on construction techniques involving the more common materials, as studied in the AE-1231 Building Construction Materials course. Laboratories highlight teamwork for the crew labor tasks applied to common assemblies and drawings of the architectural details necessary for their proper construction. (prereq: AE-1231, AE-130) AE-2212 Building Construction Methods 2 2 3 This course provides familiarity with the crew labor and equipment activities typically applied in building construction. Emphasis is placed on construction techniques involving the more common materials, as studied in the AE-1231 Building Construction Materials course. Laboratories highlight teamwork for the crew labor tasks applied to common assemblies and drawings of the architectural details necessary for their proper construction. (prereq: AE-1231, AE-1301) AE-225 Specifications and Contracts 3 0 3 Provides a working knowledge of principles for writing effective specifications and interpreting standard construction industry contracts. The course begins with a review of contract law fundamentals. Contract document standards, as related to the CSI MasterFormat, are studied. Students compare provisions of AIA and AGC contract provisions in the context of risk, ethical behavior, and administrative procedures. (prereq: AE-1231, AE-1301) AE-3011 Principles of Structural Analysis 3 0 3 This class will introduce you to the concepts and methods of structural analysis. You will learn about building codes, load calculations, and you will advance past the limitations of statics into the analysis of statically indeterminate structures. (prereq: AE-201 or AE-2012) 227

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AE-3021

Principles of Structural Steel and 4 0 4 Concrete Design Students study the fundamentals of both structural steel design and reinforced concrete design. Behavior under shear, moment, and axial load is analyzed and the proper design considerations for each material is explained. This course is an extension of the study of the concepts learned in Strength of Materials. The theoretical and allowable stresses are evaluated and compared for compliance with AISC LRFD Code and the American Concrete Institute Code. (prereq: AE-201 or AE-2012) AE-3023 Advanced Structural Analysis 3 2 4 Theory and application of computerized structural analysis, with an emphasis on developing an understanding of structural behavior. The laboratory portion allows a student to study structural components analytically and then verify their behavior through tests using principles from experimental stress analysis. Test evaluations are based on measurements of strains and deflections at varying load levels. Test specimens include, tension bars, a flexural beam, a torsion bar, buckling rods, a full scale steel joist and a steel beam loaded to plastification. (prereq: AE-3011) AE-303 Soil Mechanics and Foundations 4 0 4 This course provides a basic understanding of the interaction between soil conditions and the design of the foundation system. Methods of soil testing and site investigation are described and analysis of data is performed. Topics include soil types and classifications, physical properties, subsoil stresses, shear strength, bearing capacity, settlement, consolidation and lateral earth pressure. Foundation design topics include load transfer through the structural system, shallow and deep foundation types, design of foundation size, shape and reinforcement. Also included is pedestal, base plate and anchor bolt design. The course utilizes the latest American Concrete Institute (ACI) Code and other pertinent reference materials. (prereq: AE-3021 and AE 3023) AE-304 Advanced Steel Design 3 2 4 Students study the fundamentals of the integrated systems of steel structures. This study involves theoretical analysis combined with practical design projects. The specification of AISC LRFD Code is also studied. Connections, members and structural systems are evaluated. (prereq: AE-3021, AE-3023) AE-3111 Basic Principles of HVAC 3 0 3 This course introduces the student to the basics of building heating, ventilating, and air conditioning design. Emphasis is on introducing the topics within the context of the basic fundamentals of thermodynamics, fluid mechanics and heat transfer. Topics include introduction to comfort parameters, moist air properties, building heat loss calculation methods, building heat gain calculation methods, basic heating and cooling processes, and heating and cooling equipment. (prereq: AE-213) AE-3112 Heat Transfer and Basic Principles of HVAC 4 0 4 This course introduces the student to the basics of building heating, ventilating, and air conditioning design. Emphasis is on introducing the topics within the context of the basic fundamentals of thermodynamics, fluid mechanics and heat transfer. Topics include introduction to comfort parameters, moist air properties, building heat loss calculation methods, building heat gain calculation methods, basic heating and cooling processes, and heating and cooling equipment. (prereq: AE-213) AE-3121

Principles of Fire Protection and 4 0 4 Plumbing Design This course is an introduction to plumbing and fire suppression systems principles. The plumbing systems components to be examined include water supplies and domestic water distribution systems, plumbing fixtures and components, sanitary drainage systems, sewage treatment and disposal, and storm drainage systems. Health and safety standards will be discussed using plumbing codes and system configuration standards. The fire suppression systems components to be examined include fire science, fire safety design, fire detection and fire alarm systems, fire suppression systems, automatic sprinkler systems and smoke control 228

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

principles. Industry standards and variations will be discussed using NFPA codes and building codes. The architectural engineerâ€™s responsibilities to understand the purpose and configuration of these systems will be emphasized whether they are the designer of these systems or the designer of associated building systems. (prereq: AE-213)

AE-3131 Building Mechanical Systems I 3 2 4 This course continues the development of heating and cooling design, going from the basics learned in AE-3112 to the detailed analysis of HVAC systems and equipment. The course covers manual calculations for designing and sizing HVAC equipment, studying part-load performance, in addition to ASHRAE Standards requirements. (prereq: AE-3112) AE-3132 Building Mechanical Systems II 3 2 4 This course continues the development of heating and cooling design, by applying what has been learned in AE-3112 (Heat Transfer and Basic HVAC) and the Systems-and-Equipmentintensive course AE-3131 (Building Mechanical Systems I). The course basically applies a systematic approach to the use of heating and cooling design as required by building simulation software, currently used in the industry. An actual commercial building case study will be utilized. (prereq: AE-3131) AE-3141

Plumbing and Fire Suppression 3 2 4 Systems Design This course is a continuation of plumbing and fire suppression systems principles and then transitions into the system design, layout and specification concepts of plumbing and fire suppression systems. The plumbing systems components to be examined include water treatment, heating and pumping equipment, plumbing fixtures, plumbing specialties and plumbing piping, and installation materials. Design standards and variations will be discussed using plumbing codes and master specifications. The fire suppression systems components to be examined include standpipes and hose systems, gaseous fire suppression systems, wet sprinkler systems, pumping equipment and fire suppression systems piping, and installation specifications. Design standards and variations will be discussed using NFPA codes and master specifications. The architectural engineerâ€™s responsibilities in design and specification writing will be emphasized through examples of construction document components, including plans, details and specifications. (prereq: AE-3121) AE-3311

Introduction to Building Information 1 2 1 Modeling II This course prepares the student to utilize building information modeling (BIM) as a coordinated, integrated and consistent approach to a building project in design and construction decision making. Students are provided the basics to produce high-quality 3-D designs and construction documents, along with cost-estimating, and construction planning. The students will use BIM in the Senior Project sequence. The course will utilize Autodesk Revit Building Systems. (prereq: junior standing, AE-1301, AE-1312) AE-3321 Architectural History 3 0 3 This course introduces ideas and goals of architectural expression as they have developed from ancient civilizations to the present. Topics include historical development of architectural reasoning and construction techniques. Specific structures are analyzed for their impact on architecture and urban/rural form. (prereq: junior standing or consent of instructor) AE-3431 Construction Finance and Economics 3 0 3 This course provides the student an introduction to financial and economic concepts that confronts the building construction, engineering, and design professional. Topics include financing the construction project, interest rates, economic decision making, life cycle costs, rate of return analysis, commissioning, depreciation, income taxes, accounting procedures, budgeting, financial statement evaluations, professional liability, ethics, investment analysis, value engineering and sustainable design calculations. (prereq: junior standing) AE-3611 Principles of Electrical Systems Design 3 0 3 This introductory electrical systems design course covers topics in motors, switches, power quality, and safety, plus the basics in distribution systems, controls and the electrical code. (prereq: EE-201)

229

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AE-3612 Principles of Electrical Systems Design 4 0 4 This introductory electrical systems design course covers three-phase AC electrical power distribution and calculations. Also covered are topics in fuses, circuit breakers, transformers, conductors, conduits, motors, switches, and safety, plus the basics in distribution systems, controls and an introduction to the National Electrical Code. The course features a mini-design project where students are required to generate and present a basic set of electrical design documents. (prereq: EE-2503) AE-3621

Basic Principles of Illumination 4 0 4 and Communications An introductory illumination and communications systems course with lighting basics, which includes illumination, interior lighting design, energy use and electrical codes and communication basics in security and fire alarm systems. (prereq: AE-3612) AE-3631 Building Electrical Power Distribution I 3 2 4 Topics include power systems below 600 volts, totalizing loads, feeder and branch circuits, power transformers, overcurrent protection, fault currents, circuit breaker selection, and electrical code application. Panelboard and switchboard selection, electric service entrances, power factor correction, power company coordination, small and medium motors, motor control and electrical measuring devices are covered. Laboratory experiments relating to equipment and analysis, as well as a case study, provide students with an opportunity to demonstrate application of course material. An electrical design project is started in this course. (prereq: AE-3612) AE-3641 Building Electrical Power Distribution II 3 2 4 Campus power plants and distribution, large and tall building power distribution, totalizing loads, large and medium voltage services, power company coordination, emergency generators, power factor correction, underground duct banks, electrical vaults, per unit fault current calculations, medium voltage equipment, working clearances around equipment, large motors, motor control, and feeder and branch circuit design are all covered in this course. Case studies are presented to reinforce theory and application of electrical code. Continuation of the electrical design project started in AE-3631. (prereq: AE-3631) AE-3651

Building Illumination and Communications 4 0 4 Design The illumination design topics include outdoor lighting and specifications. Communication topics include telephone systems, cable systems, LAN systems, emergency systems, exit lighting, backup batteries and generators. The electrical design project is continued in this course. (prereq: AE-3621; coreq: AE-3641) AE-401 Advanced Concrete Design 3 2 4 This course is the second course in reinforced concrete design. Basic design of beams, one-way slabs and short columns is reviewed. Emphasis is on beams and slabs subjected to torsional loading, long columns and two-way slabs. Frame analysis with computer- aided applications is introduced, along with the concepts of prestressed concrete and composite design. (prereq: AE-3021, AE-3023) AE-407 Wood and Masonry Design 3 0 3 Engineering properties and behavior of wood and masonry are determined by their unique characteristics. Design techniques for wood beams and columns, and nailed and bolted connections are presented. Design of reinforced and un-reinforced masonry bearing walls is covered. (prereq: AE-3021, AE-3023)

230

AE-411 Building Systems Control 3 2 4 This course familiarizes the students with a basic knowledge of HVAC system controls and control theory. Topics covered will be pneumatic, electric, and electronic control systems and components. Building energy management and its connection to control systems will be introduced. In addition to this, basic motors starters and power sources will be reviewed. Reinforcement of the various topics will be provided through laboratory tests and observations using the various HVAC equipment located in the Johnson Controls Energy Laboratory. (prereq: AE-3132, AE-3612)

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AE-412 Energy Management Techniques 3 0 3 Using the information from the previous energy systems courses, the student will study basic energy management from an energy conservation perspective. This will include various methods of energy conservation and the savings afforded by them, evaluation of equipment and system performance, along with calculation procedures required for system economic evaluations. The course will emphasize the retrofit of existing systems for energy conservation. As part of the course, the students will be required to use an energy analysis computer program and spreadsheet analysis to calculate equipment performances. In addition, actual methods in management of a building for energy conservation will be discussed. (prereq: AE-411) AE-4121

Environmental Science in Building 3 0 3 Construction This course introduces students to environmental aspects and impacts of construction-related activities. Topics include an introduction to environmental laws, regulations and policies; environmental exposures to hazardous chemicals; management and minimization of construction and demolition waste; storm water management; air quality management and the hazardous communications standard. (prereq: AE-1231, CH-200, 201, junior standing) AE-417 Advanced Plumbing Systems Design 3 0 3 This course further expands the studentâ€™s knowledge of plumbing systems design learned in AE315. Topics covered include advanced systems analysis and design of high-rise plumbing systems, domestic water heating systems, hot water maintenance systems, gas and vacuum systems for medical facilities and industrial applications, and high purity water systems. Coordination with other building systems including electrical, fire protection and HVAC systems will be included to aid in the understanding of conflicts during the design process. (prereq: AE-3141) AE-4311 Architectural Design 2 2 3 This course offers the student an opportunity to understand and demonstrate skills in problem solving and design of building projects. Areas stressed in this course include problem analysis and solving, project design, graphic and oral presentation techniques, architectural programming, building code search and working drawing standards. (prereq: senior standing; coreq: AE-4712 or CM-4712) AE-4411

Engineering Economy and Building 3 0 3 Investment Economics This course is based on the principle that in order to properly meet a clientâ€™s goals on a building project, the Architect/Engineer must understand the economic factors that motivate the client to build. The student is taught their role in pre-development analysis along with the basic principles of real estate investment, cash flow, engineering economics, depreciation, appreciation, and tax shelter. Additional topics include development history, zoning, tax laws, equity investments, LEED, sustainable development, and appraisal techniques. Emphasis is placed on the application of economic analysis to the senior design projects. The instructor may arrange guest lectures and tours throughout the quarter. (prereq: AE-3431, or CM-3013) AE-4412

Engineering and Building Investment 4 0 4 Economics This course provides financial and economic concepts that confront the building construction, engineer, and design professional. The student is taught their role in pre-development analysis along with the basic principles of real estate investment. An insight is gained on the economic factors that motivate the client to build. Topics include: financing the construction project, interest rates, economic decision making, life cycle costs, rate of return analysis, depreciation, income taxes, budgeting, financial statement evaluations, professional liability, investment analysis, value engineering and sustainable design calculations, cash flow analysis, engineering economics, appreciation, tax shelter, development history, zoning, tax laws, equity investments, LEED/sustainable development, and appraisal techniques. Emphasis is placed on the application of economic analysis to the senior design projects. The instructor may arrange guest lectures and tours throughout the quarter. (prereq: senior standing) 231

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AE-461 Advanced CAD with AE Applications 2 2 3 In previous courses, the student gained a knowledge of using a CAD system to create 2-D and 3-D drawings. In this course, the emphasis is on 3-D drawing. Emphasis also is placed on the potential for AE presentations. The 3-D aspects are used to illustrate site planning and layout. (prereq: AE-1311, junior standing or consent of instructor) AE-463 Electrical Power Quality for Buildings 3 2 4 This course covers topics involving typical equipment utilizing solid state devices for power quality, such as uninterruptible power supplies, transient voltage suppressors, power line conditioners and voltage regulators. Grounding and neutral systems are studied. The student is exposed to basic electronic concepts, devices monitoring and analysis associated with this equipment. (prereq: AE-3641) AE-466 Project Management for Electrical Engineers 3 0 3 A study of methods and operations of an electrical project from the perspective of the electrical engineer. Topics to include electrical estimating, specification writing, project code review, project scheduling, safety awareness and building code review. (prereq: senior standing, AE-463) AE-4711

Architectural Engineering and Construction 1 1 1 Management Design-Build Senior Project I This course is the first part of a three-part series in designing a building for a real life client using the design build project delivery method. The course concentrates on developing the required program a designer must complete in order to understand the clients building and design goals and requirements. The students must understand spatial relationships, building users, building codes and budget constraints in the development of the final program. The program is then used in the other senior project courses, AE-4721/CM-4721 and AE-4731/CM-4731, as a basis of the design for the building. Other topics include organization, team building, client interviewing skills, LEED and sustainable development, space analysis, building code review, building type research, value engineering and CADD. Note: BSAE students should registers for AE-4711; BSCM students should register for CM-4711; five-year, two-degree BSAE/BSCM students would register for AE-4711 in their fourth year and CM-4711 in their fifth year. Students must take this course in consecutive terms with AE-4721/CM-4721, followed by AE-4731/CM-4731. (prereq: senior standing or fifth year standing in BSAE/BSCM five-year program.) AE-4712

Architectural Engineering and Construction 1 2 2 Management Design-Build Senior Project I This course is the first part of a three-part series in designing a building for a real life client using the design build project delivery method. The course concentrates on preparing and developing the required "program" a designer must complete in order to understand the clientâ€™s building and design goals and requirements. The students must understand spatial relationships, building users, building codes and budget constraints in the development of the final program. The program is then used in the follow-on senior project courses in subsequent quarters, as the basis of the design for the building. Other topics include team organization, team building, client interviewing skills, LEED and sustainable development, space analysis, building code review, building type research, Building Information Modeling (BIM) and CAD. Note: BSAE students should register for AE-4712; BSCM students should register for CM-4712; five-year twodegree BSAE/BSCM students should register for AE-4712 in their fourth year and CM-4712 in their fifth year. Students must take this course in consecutive terms with AE-4721/CM-4721, followed by AE-4731/CM-4731 and AE-4733. (prereq: senior standing or fifth year standing in BSAE/BSCM five-year program, successful completion of all junior level AE technical specialty courses, major GPA of at least 2.00; coreq: AE-4311) AE-4721

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

building electrical power distribution engineers and construction managers. It continues to emphasize the design-build process and requires an interdisciplinary team of students to utilize their respective engineering design specialty courses or construction management expertise as they design a building and plan for its construction by using estimating, scheduling, budgeting and construction project management techniques. The following phases will be completed: (1) site analysis; (2) preliminary architectural drawings and presentations; (3) architectural design development drawings; (4) preliminary engineering (structural, environmental, electrical) systems analysis; (5) preliminary budget analysis; (6) project scheduling and (7) ongoing project management responsibilities; (8) presentation to clients and other professionals. Note: Fouryear BSAE students must register for AE-4721; four-year BSCM students must register for CM4721; five-year BASE/BSCM two-degree students must register for AE-4721 in their fourth year and four CM-4721 in their fifth year. The three-course sequence 4711/4721/4731 must be taken in consecutive quarters during the same academic year. (prereq: senior standing, AE-4712)

AE-4731

Architectural Engineering and Construction 1 3 4 Management Design-Build Senior Project III This is the final course in the senior project series, a continuation of the team taught senior project. Emphasis is on the design-build process and the interdisciplinary team of students to utilize their respective engineering design specialty courses or construction management expertise. This course emphasizes the engineering design and construction project management work begun in AE-4721/CM-4721. The topics in this course include (1) analysis and calculations for all engineering systems; (2) continued constructability analysis and value engineering; (3) life cycle cost analysis; (4) construction quality control systems; (5) project scheduling, estimating; (6) ongoing project management; and (7) project startup procedures. Students also make a presentation to industrialists in defense of their engineering design or CM project analysis. Note: Four-year BSAE students must register for AE-4731; four-year BSCM students must register for CM-4731; five-year BSAE/BSCM two-degree students must register for AE-4731 in year four and for CM-4731 in year five of their programs. The three-course sequence, 4711/4721/4731, must be taken in consecutive quarters during the same academic year. (prereq: senior standing, AE-4721; coreq: AE-4733) AE-4733 AE Senior Project Working Drawings 2 2 3 This course integrates previous studies in materials, construction methods, structural systems, mechanical systems, specifications and architectural design to produce a full set of detailed construction drawings. The project will utilize the studentâ€™s design from AE 4721. (prereq: AE-4721, AE-4712; coreq: AE-4731) AE-490 Independent Study 1 0 3 This subject provides an advanced student with an opportunity to develop an in-depth understanding of an area within their major field of study by means of a practical architectural or engineering project. Students are required to research, analyze and develop design solutions. Completed projects are submitted to the faculty advisor in a formal technical communication form as prescribed by the advisor. (prereq: consent of department chairman) AF-1011 Foundations of the Air Force 1 1 2 1 Introduction to the organizational structure and missions of Air Force organizations; officership and professionalism; and includes an introduction to communicative skills. Offered fall term. Open to all students. Students pursuing an Air Force commission must register for AF-1051. AF-1012 Foundations of the Air Force 2 1 2 1 Continuation of AF-1011. Offered winter term. Open to all students. Students pursuing an Air Force commission must register for AF-1051. AF-1013 Foundations of the Air Force 3 1 2 1 Continuation of AF-1012. Offered spring term. Open to all students. Students pursuing an Air Force commission must register for AF-1051.

233

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AF-1051 Leadership Laboratory 0 4 0 An average of two hours per week throughout the studentâ€™s enrollment in AFROTC. Supervised instruction is conducted within the framework of organized cadet corps activities designed to develop each studentâ€™s leadership potential. Also Air Force customs and courtesies, drill and ceremonies, career opportunities, and the life and work of an Air Force junior officer. All students pursuing Air Force commission must register for this course. Offered every term. S/U grade assessment. AF-2021

Evolution of the Air Force/Air and Space 1 2 1 Power 1 Focuses on factors contributing to the development of air power from its earliest beginnings through two world wars; the evolution of air power concepts and doctrine; and an assessment of communicative skills. Open to all students. Offered fall term. Students pursuing an Air Force commission must register for AF-1051. AF-2022

Evolution of the Air Force/Air and Space 1 2 1 Power 2 Continuation of AF-2021. Open to all students. Offered winter term. Students pursuing an Air Force commission must register for AF-1051. AF-2023

Evolution of the Air Force/Air and Space 1 2 1 Power 3 Continuation of AF-2022. Open to all students. Offered spring term. Students pursuing an Air Force commission must register for AF-1051. AF-2964 Air Force Field Training 6 0 6 Off-campus summer program held at Maxwell Air Force Base, Montgomery, Alabama. The program provides the student with practical leadership experience and extensive practical training in fundamental leadership and military skills. Students do not incur military obligation, do not pay expenses, but do receive pay for this training. This course is offered in lieu of AF1011, AF-1012, AF-1013, AF-2021, AF-2022, and/or AF-2023 at the direction of the department chair for students pursuing an Air Force Commission. Offered only during the summer. S/U grade assessment. (prereq: consent of department chair) AF-3131 Air Force Leadership Studies 1 3 2 3 A study of leadership and quality management fundamentals, professional knowledge, leadership ethics, and communicative skills required of an Air Force officer. Case studies are used to examine Air Force leadership and management situations as a means of demonstrating and exercising practical application of the concepts being studied. Offered fall term. All students pursuing Air Force commission must register for AF-1051. AF-3132 Air Force Leadership Studies 2 3 2 3 Continuation of AF-3131. Offered winter term. All students pursuing an Air Force commission must register for AF-1051. AF-3133 Air Force Leadership Studies 3 3 2 3 Continuation of AF-3132. Offered spring term. All students pursuing an Air Force commission must register for AF-1051. AF-4141

National Security Affairs/Preparation 3 2 3 for Active Duty 1 Examines the national security policy process, regional studies, and formulation of the American defense policy, strategy and joint doctrine. Special topics of interest focus on the military as a profession; US Air Force functions, competencies and doctrine; officership; the military justice system; civilian control of the military; preparation for Air Force active duty; and current issues affecting military professionalism. Within this structure, continued emphasis is given to the refinement of communication skills. Offered fall term. Students pursuing Air Force commission must register for AF-1051.

234

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AF-4142

National Security Affairs/Preparation 3 2 3 for Active Duty 2 Continuation of AF-4141. Offered winter term. All students pursuing Air Force commission must register for AF-1051. AF-4143

National Security Affairs/Preparation 3 2 3 for Active Duty 3 Continuation of AF-4142. Offered spring term. All students pursuing Air Force commission must register for AF-1051. AF-4995

Independent Study in Air Force and 0 0 3 Aerospace Studies Independent study of special topics in Aerospace Studies under faculty supervision. Topics selected by student/faculty conference. Offered every term. Course may be taken for 1-3 credits. (prereq: consent of department chair) AR-1001 Military Physical Training Laboratory 1 1 0 1 This goal-oriented, small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army Physical Fitness Test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the laboratory. Offered fall term. AR-1002 Military Physical Training Laboratory 2 1 0 1 This goal-oriented, small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army Physical Fitness Test, consisting of push-ups, sit-ups , and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military Science students may elect to take only the physical conditioning portion of the Laboratory. Offered winter term. AR-1003 Military Physical Training Laboratory 3 1 0 1 This goal-oriented, small unit approach to physical conditioning and military drill is required for all cadets enrolled in Military Science courses. This Lab is conducted three times per week. It is oriented toward strength , mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army Physical Fitness Test, consisting of push-ups, sit-ups , and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the Laboratory. Offered spring term. AR-1100 Foundations of Officership 1 0 1 Introduction to issues and competencies that are central to a commissioned officerâ€™s responsibilities. This course is designed to establish a framework for understanding officership, leadership, and Army values. Additionally, the semester addresses "life skills" including fitness and time management. The AR-1100 course is designed to give the student an accurate insight into the Army Profession and the officerâ€™s role within the Army. Offered fall term.

235

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AR-1200 Basic Leadership 1 1 0 1 AR-1200 is designed to build on the experiences of the fall term and further broaden the studentâ€™s introduction to the Army. Students receive an introduction to communication principles, military briefings, effective writing, problem solving, goal setting, listening and speaking skills, and counseling. Students are provided a broad overview of life in the Army, including the employment benefits and work experiences of junior officers. Offered winter term. AR-1201 Basic Leadership 2

AR-1201 is designed to build on the experiences of the fall and winter terms and further broaden the studentâ€™s introduction to the Army. Students receive an introduction to communication principles, military briefings, effective writing, problem solving, goal setting, listening and speaking skills, and counseling. Students are provided a broad overview of life in the Army, including the employment benefits and work experiences of junior officers. Offered spring term.

AR-1800

American Crucible: The Military and the 3 0 3 Development of the United States This course explores American military history from the colonial period to the present through the lens of military affairs and primarily through the land component of the military, the Army. This course will use the Army and the military itself as a lens through which to explore the impact of governmental structures and policies, international affairs, societal change, technological and industrial innovation, and geography on American development. (prereq: consent of department chair) AR-2001 Military Physical Training Laboratory 4 1 0 1 This goal-oriented, small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army Physical Fitness Test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the Laboratory. Offered fall term. AR-2002 Military Physical Training Laboratory 5 1 0 1 This goal-oriented, small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army physical fitness test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the Laboratory. Offered winter term. AR-2003 Military Physical Training Laboratory 6 1 0 1 This goal-oriented, small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army physical fitness test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the Laboratory. Offered spring term.

236

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AR-2100 Individual Leadership Studies 2 0 2 Students enrolled in AR-2100 are placed in a wide variety of group exercises, both inside and outside the classroom, designed to emphasize various professional leadership competencies and insights, such as the fundamentals of team building, decision making, conflict resolution, organizing and planning, creative problem solving and character building. Offered fall term. (prereq: AR-1100, AR-1200 and AR-1201) AR-2200 Leadership and Teamwork 1 2 0 2 AR2200 focuses on the student’s own self-development guided by knowledge of self and group processes. Experiential learning activities, both inside and outside the classroom, are designed to challenge cadets’ current beliefs, knowledge and skills. Offered winter term. (prereq: AR-1100, AR-1200 and AR-1201; or consent of instructor) AR-2201 Leadership and Teamwork 2 2 0 2 AR2201 focuses on the student’s own self-development guided by knowledge of self and group processes. Experiential learning activities, both inside and outside the classroom, are designed to challenge cadets’ current beliefs, knowledge and skills. Offered spring term. (prereq: AR-1100, AR-1200 and AR-1201; or consent of instructor) AR-3001 Military Physical Training Laboratory 7 1 0 1 This goal-oriented, small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army physical fitness test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the laboratory. Offered fall term. AR-3002 Military Physical Training Laboratory 8 1 0 1 This goal-oriented small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army physical fitness test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the laboratory. Offered winter term. AR-3003 Military Physical Training Laboratory 9 1 0 1 This goal-oriented small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army physical fitness test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-Military Science students may elect to take only the physical conditioning portion of the Laboratory. Offered spring term. AR-3100 Leadership and Problem Solving 2 0 2 AR-3100 is designed to help prepare students for the challenges of accepting greater responsibility in teaching and participating in Military Science and Leadership Labs. It is the first course that all students seeking a commission in the United States Army must take. Students will be introduced to the principles in the Leader Development Program, the Army’s troop leading procedures, and taught how to plan and conduct individual and small unit training. Offered fall term. (prereq: AR-3101, which may be taken concurrently, AR-1100, AR-1200, AR-1201, AR-2100, AR-2200, and AR-2201 or consent of instructor) 237

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AR-3101 Applied Leadership Laboratory 1 1 0 1 Practical exercises and evaluations in military leadership skills including operational planning, quality management and inspections, and controlling small groups in realistic settings. Students develop training programs, plan training sessions, and present classes for this and other Military Science Leadership labs. Topics include individual and small unit movement techniques, communicating by tactical radio, water survival (drownproofing), drill and ceremony, and land navigation skills. Offered fall term. (prereq: AR-3100 which may be taken concurrently) AR-3200 Leadership and Ethics 1 2 0 2 This course is designed to continue the student’s development as a leader as he/she receives further instruction in interpersonal communication, values and ethics, and leadership. Additionally, students receive an introduction and overview of various summer training opportunities such as, airborne school and the National Advanced Leadership Camp (NALC). Students are also introduced to the many career choices the Army has to offer. Offered Winter quarter. (prereq: AR-3100 and AR-3202, which may be taken concurrently) AR-3300 Leadership and Ethics 2 2 0 2 This course is designed to continue the student’s development as a leader as he/she receives further instruction in interpersonal communication, values and ethics, and leadership. Additionally, students receive an introduction and overview of various summer training opportunities such as, airborne school and the National Advanced Leadership Camp (NALC). Students are also introduced to the many career choices the Army has to offer. Offered Spring quarter. (prereq: AR-3100, AR-3200; and AR-3301, which may be taken concurrently) AR-3303 Applied Leadership Laboratory 3 1 0 1 Practical exercises and evaluations in military leadership skills including operational planning, quality management and inspections, and controlling small groups in realistic settings. Students develop training programs, plan training sessions, and present classes for Military Science Leadership labs. Topics include field training exercises, tactical leadership, decision making, and squad level offensive and defensive battle drills. Offered Spring quarter. (prereq: AR-3300, which may be taken concurrently) AR-3964 Military Science Practicum 6 0 6 Off-campus summer program offered at the U.S. Army Reserve Officers’ Training Corps Basic Camp, Fort Knox, Kent. This program counts as completion of the Basic Course. The six-week program provides the student with practical leadership experience and extensive practical training in fundamental leadership and military skills. Students do not incur military obligation, do not pay expenses, but do receive pay for this training. The program is offered in lieu of AR-1100, AR-1200, AR-1201, AR-2100, AR-2200 and AR-2201. Offered only during the summer. (prereq: consent of department chair) AR-4001 Military Physical Training Laboratory 10 1 0 1 This goal-oriented small unit approach to physical conditioning and military drill is required for all cadets enrolled in military sciences courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army physical fitness test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the laboratory. Offered fall term. AR-4002 Military Physical Training Laboratory 11 1 0 1 This goal-oriented small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army physical fitness test, consisting of push-ups, sit-ups and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit 238

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the laboratory. Offered winter term.

AR-4003 Military Physical Training Laboratory 12 1 0 1 This goal-oriented small unit approach to physical conditioning and military drill is required for all cadets enrolled in military science courses. This lab is conducted three times per week. It is oriented toward strength, mobility and endurance development. Physical development and the ability to master principles of small unit leadership are also stressed. Student physical development is measured via the Army physical fitness test, consisting of push-ups, sit-ups, and a timed two-mile run. Drill instruction is conducted on Fridays, and stresses fundamentals of unit organization, wear of the uniform, and practical application of small unit leadership techniques. Non-military science students may elect to take only the physical conditioning portion of the laboratory. Offered spring term. AR-4100 Officership 2 0 2 Focuses students on two main areas: the Military Decision Making Process and the Armyâ€™s Training Management System. It also Covers several critical areas needed to operate effectively as an Army officer, including: coordinating activities with staffs, counseling theory and practice within the "army context," and ethics. Offered fall term. (prereq: AR-3100, AR-3200, AR-3300 and AR-4101, which may be taken concurrently) AR-4101 Advanced Leadership Laboratory 1 0 0 0 Weekly practical exercises and preparatory periods for command staff functions, drill and ceremonies, assistant instructor roles and field training exercises. Students perform roles of cadet officers in assigned positions or tasks. Offered fall term. S/U grade assessment. (prereq: AR-4100, which may be taken concurrently) AR-4200 Leadership and Management 1 2 0 2 Focuses on completing the transition from cadet to lieutenant. Students receive instruction on the legal aspects of decision-making and leadership, operations from the tactical to strategic level, administrative and logistical management, and a series of Capstone Seminars focusing on entering the Army as a new Lieutenant. These seminars require students, both individually and collectively, to apply their knowledge to solve problems and confront situations commonly faced by junior officers. Offered winter term. (prereq: AR-4100, AR-4101 and AR-4202, which may be taken concurrently) AR-4202 Advanced Leadership Laboratory 2 0 0 0 Weekly practical exercises and preparatory periods for command staff functions, drill and ceremonies, assistant instructor roles and field training exercises. Students perform roles of cadet officers in assigned positions or tasks. Offered winter term. S/U grade assessment. (prereq: AR-4200, which may be taken concurrently) AR-4300 Leadership and Management 2 2 0 2 Focuses on completing the transition from cadet to lieutenant. Students receive instruction on the legal aspects of decision-making and leadership, operations from the tactical to strategic level, administrative and logistical management, and a series of Capstone Seminars focusing on entering the Army as a new Lieutenant. These seminars require students, both individually and collectively, to apply their knowledge to solve problems and confront situations commonly faced by junior officers. Offered spring term. (prereq: AR-4100, AR-4101 and AR-4202, which may be taken concurrently) AR-4303 Advanced Leadership Laboratory 3 0 0 0 Weekly practical exercises and preparatory periods for command staff functions, drill and ceremonies, assistant instructor roles and field training exercises. Students perform roles of cadet officers in assigned positions or tasks. Offered spring term. S/U grade assessment. (prereq: AR-4300, which may be taken concurrently)

239

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

AR-4995

Independent Study in Military Science 3 0 3 and Leadership Independent study of special topics in military science under faculty supervision. Topics selected by student/faculty conference. Course can be taken for 1-3 credits. (prereq: consent of department chair) BE-1000 Introduction to Biomedical Engineering 1 3 2 The objective of this course is to introduce students to the biomedical engineering profession. Emphasis will be placed on design terminology and methodology applicable to biomedical engineering problems. Students will be introduced to a number of common design resources and tools. Engineering breadth topics such as intellectual property and entrepreneurship will also be introduced. In the laboratory, the students will be required to demonstrate proficiency in using an engineering logbook, performing and reporting routine engineering computations, applying common office software that support the design process, and working in teams to complete simple design projects. BE-200

Sophomore Biomedical Engineering 1 0 1 Design I This course is a continuation of the BE design sequence and the first in a series of sophomorelevel design courses. Particular emphasis is given to the application and use of project management techniques and software, structured searching of medical and engineering literature, use of available engineering and graphics software, and exploring biomedical engineering career opportunities. Continued emphasis on design team development and the proper use and maintenance of the engineering logbook is also included. (prereq: BE-103) BE-2000 Biomedical Engineering Design I 1 0 1 This course is the first in a series of seven design courses in the BE design sequence. Particular emphasis is given to design team formation, problem definition, project development based on identification of customer needs, and literature review. In particular the systematic searching of trade, medical and engineering literature will be explained. Project management techniques, FDA requirements for medical device design, and ethical and human research subject considerations (including introduction to Institutional Review Board (IRB) for Human Subject Research processes) will also be covered. (prereq: BE-1000) BE-201

Sophomore Biomedical Engineering 1 0 1 Design II This course is a continuation of the sophomore BE design sequence. In this course particular emphasis is given to intellectual property (IP) issues, creation and use of engineering specifications and human factors issues, and software design topics. Design team development and the proper use and maintenance of the engineering logbook are also included. (prereq: BE-200) BE-202

Sophomore Biomedical Engineering 1 0 1 Design III This course is a continuation of the BE design sequence and the third in a series of sophomorelevel design courses. Particular emphasis is given to biomedical engineering career options, block diagrams and the systems approach to design, incorporation of safety considerations into the design process, introductory electrical safety, and an introduction to codes and standards (including NFPA, NEC, AMMI and ANSI codes and standards). Continued emphasis on design team development and the proper use and maintenance of the engineering logbook is also included. (prereq: BE-201, EN-132) BE-206 Biomedical Signals and Systems I 3 3 4 This course introduces students to transient analysis of linear systems primarily through the use of first and second order circuits with step inputs in the time domain. This is followed by analysis of general circuits using Laplace techniques. Transfer functions are treated in Laplace and sinusoidal steady state form. Bode plots are introduced. Circuit analysis techniques are applied analogously to selected examples from thermal, mechanical, or fluid systems. Circuit simulation software is used to support and enhance hand analysis. (prereq: EE-201, MA-235) 240

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

BE-2070

Introduction to Medical 0 2 1 Device Technologies This is the first of a three courses intended to prepare students to participate in international medical mission activities. It exposes students to the fundamentals of medical device technology. It introduces students to a variety of diagnostic and therapeutic medical devices typically used in hospitals and clinics. Particular emphasis is given to the clinical application and use of such devices, intrinsic safety and risk issues, and basic inspection, maintenance, calibration, and testing procedures. Laboratory exercises using medical devices will be included. Note that this course cannot be used as a BE technical elective. (prereq: consent of instructor, sophomore standing in BE or nursing program) BE-2071

Medical Device Technologiesâ€” 0 2 1 Common Devices This is the second of three courses intended to prepare students to participate in international medical mission activities. It exposes students to a variety of diagnostic and therapeutic medical devices typically used in hospitals and clinics. Such devices include, but will not be limited to: physiological monitors, infusion pumps, electrosurgical units, ventilators, and non-invasive blood pressure measuring devices. Laboratory exercises involving medical devices and clinical visits may be included. Note that this course cannot be used as a BE technical elective. (prereq: BE-2070) BE-2072

Medical Device Technologiesâ€” 0 2 1 Specialized Topics This is the third of three courses intended to prepare students to participate in international medical mission activities. It exposes students to a variety of diagnostic and therapeutic medical devices typically used in hospitals and clinics. Such devices include, but will not be limited to: physiological monitors, infusion pumps, electrosurgical units, ventilators, and non-invasive blood pressure measuring devices. Laboratory exercises involving medical devices and clinical visits may be included. Note that this course cannot be used as a BE technical elective. (prereq: BE-2070) BE-2200

Computing in Biomedical and 3 3 4 Biomolecular Engineering The objective of this course is to familiarize students with the computer resources available at MSOE and to present the basics of computer programming as it applies to biomedical and biomolecular engineering. Each student is required to demonstrate proficiency in writing computer programs to solve engineering problems with biomedical and biomolecular applications. Particular emphasis will be placed on program design, documentation and testing. Effective use of various data types, logical operations and selection, repetition, production of professional quality data visualization (plotting), built-in and user defined functions and console, file operations, classes, structures, and function handles will also be covered. The MATLAB language is used in this course. (coreq: MA-137) BE-261 Biostatistics I 3 0 3 This course provides an introduction to biostatistics for biomedical engineering students. As a result of this course the students are expected to understand and prepare statistical analyses to data from physiological systems in the laboratory and clinical environment. Students learn basic probability theory that includes discrete and continuous probability distributions. They learn how to apply that theory to hypothesis testing and understand the difference between a z-test and t-test, and one- and two-sample inference hypothesis testing. These statistical procedures may be presented in current research publications or used by students in preparation of course project and design reports. (prereq: MA-137) BE-300 Junior Biomedical Engineering Design I 1 0 1 This course is a continuation of the BE design sequence and the first in a series of junior-level design courses. Particular emphasis is given to the application and use of project management techniques and software, structured searching of medical and engineering literature, use of available engineering and graphics software, and exploring biomedical engineering career opportunities. Continued emphasis on design team development and the proper use and maintenance of the engineering logbook is also included. (prereq: BE-202, BE-261, EN-241, ME-206, EE-201)

241

BE-3000 Biomedical Engineering Design II

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

This course is a continuation of the BE design sequence. In this course, particular emphasis is given to defining the project, project planning, system life-cycles, marketing analysis, IRB procedures, intellectual property (IP) issues, and introduction of codes and standards. Design team development and the proper use and maintenance of the engineering logbook are also included. (prereq: BE-2000)

BE-3001 Biomedical Engineering Design III 1 2 2 This course is a continuation of the BE design sequence. In this course, particular emphasis is given to defining the house of quality, block diagrams, the systems approach to design, Solidworks, incorporation of safety considerations into the design process, and completion of codes and standards (including NFPA, NEC, AMMI and ANSI codes and standards). Design team development and the proper use and maintenance of the engineering logbook are also included. (prereq: BE-3000) BE-3002 Biomedical Engineering Design IV 1 2 2 This course is a continuation of the BE design sequence. In this course, particular emphasis is given to defining the product requirements, design methodologies and technologies, grant writing, block diagrams, and biomedical engineering careers. Design team development and the proper use and maintenance of the engineering logbook are also included. (prereq: BE-3001) BE-301 Junior Biomedical Engineering Design II 1 0 1 This course is a continuation of the BE design sequence and the second in a series of junior-level design courses. Particular emphasis is given to the continued application and use of project management techniques and software, structured searching of medical and engineering literature, use of available engineering and graphics software, and exploring biomedical engineering career opportunities. Continued emphasis on design team development and the proper use and maintenance of the engineering logbook is also included. (prereq: BE-300, BE-307, ME-207) BE-302 Junior Biomedical Engineering Design III 1 0 1 This course is a continuation of the BE design sequence and the third in a series of junior-level design courses. Particular emphasis is given to the continued application and use of project management techniques and software, structured searching of medical and engineering literature, use of available engineering and graphics software, and exploring biomedical engineering career opportunities. Continued emphasis on design team development and the proper use and maintenance of the engineering logbook is included. (prereq: BE-301) BE-306 Biomedical Instrumentation 3 3 4 This course addresses the mathematical modeling active solid state devices such as diodes and transistors based on the device voltage-current characteristics. The models are used in the analysis of rectifier circuits and the linearized small signal analysis of single stage amplifiers. The limits of linear amplifier operation are discussed. Circuits based on the devices are designed and tested in the laboratory. Circuit simulation software is used as a design tool. Principle devices covered include p-n junction diodes, bipolar junction transistors, and field effect transistors. (prereq: EE-3111) BE-307 Signals and Systems II 4 0 4 This course is intended to provide a modern treatment of signals and systems at the introductory level. Further, it provides a balanced and integrated treatment of continuous-time signals and systems intended to reflect their roles in engineering practice. The course is designed to prepare students for upper-level courses in biomedical digital signal processing, advance medical instrumentation, medical imaging, and feedback control systems. (prereq: BE-206, MA-232, BE-2200)

242

BE-3100 Quantitative Systems Physiology I 3 0 3 The objective of this course is to present the concepts of human physiology that are most pertinent to the field of biomedical engineering. Concepts from the following topics will be covered: homeostasis, cell membrane potentials and transport mechanisms, nerve and muscle, and heart and the circulatory system. (prereq: BI-102, CH-223, MA-3610)

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

BE-3110 Quantitative Systems Physiology II 3 0 3 The objective of this course is to present the concepts of human physiology that are most pertinent to the field of biomedical engineering. Concepts from the following topics will be covered: autonomic nervous system, blood, lymphatics and immunity, respiratory system, urinary system, endocrine system and digestive system. (prereq: BE-3100) BE-330 Bioelectric Fields 4 0 4 The objective of this course is to introduce the student to the topic of electrophysiology. Topics include vector calculus, transmission lines, electrical sources and fields, bioelectrical potentials and current, and electrical stimulation of excitable tissue. (prereq: BI-373, PH-230, MA-231) BE-3300 Biomedical Engineering Transfer Topics 3 0 3 This course provides transfer students additional knowledge necessary for their integration into MSOEâ€™s biomedical engineering program. Specifically, it introduces important design, record keeping and regulatory concepts, covers MATLAB as a second computer language, and adds biostatistics knowledge to existing statistics backgrounds. Other topics may be covered as needed. It provides select prerequisite knowledge from BE-1000, BE-2000, BE-2200 and MA-3610. (prereq: junior standing, transfer student) BE-3500 Bio-thermal-fluid Transport 1 4 0 4 The objective of this course is to present fundamental principles of classical thermodynamics, and to apply these principles to the solution of both classical and biological problems. Introductory concepts in fluid mechanics are also presented. (prereq: MA-235) BE-3510 Bio-thermal-fluid Transport 2 3 0 3 The objective of this course is to present fundamental principles of classical fluid mechanics, mass transport and heat transfer, and to apply these principles to the solution of both classical and biological problems. (prereq: BE-3500) BE-352 Survey of Biomedical Engineering 3 0 3 The objective of this course is to present the non-biomedical engineering student with an overview of how biomedical engineering contributes to various areas of the health care system. Topics include examples of diagnostic, therapeutic, and monitoring devices and systems. (prereq: junior standing) BE-3600 Biomedical Instrumentation 3 3 4 This course focuses on the fundamental devices, circuitry and techniques needed to acquire and process biomedical quantities and signals. The application of displacement, force and pressure transducers in the conversion of physical quantities to electrical signals is discussed. Operational amplifiers are introduced and used in amplifier and filter circuits to process the signals. Non-ideal op amp properties, including finite gain, frequency response, stability, input and output resistances, bias currents and offset voltages, are treated in sufficient depth to permit design of high gain circuits capable of handling small DC and low frequency AC voltages. Transmission of physical variables through a medium to a sensor is treated in the case of an indwelling arterial catheter and pressure transducer. (prereq: BE-206) BE-361 Biostatistics II 3 0 3 As a continuation of BE-261, this course addresses the broader issues of the design of experiments. Included are the concepts associated with measurement validity and reliability, hypothesis formulation and testing, and the experimental and statistical control of error. Particular emphasis is given to the appropriate selection and use of parametric statistical tests including t-tests, analysis of variance, repeated-measures designs, and simple and multiple regression. Statistical software tools are used throughout the course. (prereq: BE-261)

243

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

BE-3800 Biomedical Signals and Systems II 3 0 3 This course is intended to advance a studentâ€™s understanding of the materials introduced in BE206, Biomedical Signals and Systems I. The primary goal of the course is to enhance their ability to predict and modify behavior of continuous-time physiological signals and systems. The course is designed to prepare students for upper-level courses in biomedical digital signal processing, advance medical instrumentation, medical imaging, and feedback control systems. The primary material coverage will be the treatment of continuous-time signals and systems and provide introductory coverage of the Fourier series and Fourier transform. These topics are critical if a student is to gain a thorough understanding of continuous-time signals and systems, particularly physiological signals and systems. These are critical concepts that a biomedical engineer must understand in order to predict how a physiological system will alter a signal and that the alteration may be intentional (designed) or unintentional (interference). (prereq: BE-206, MA-232, BE-2200) BE-381

Biophysical Phenomena: 4 0 4 Thermodynamics and Heat Transfer The objective of this course is to present fundamental principles of classical thermodynamics and heat transfer, and to apply these principles to the solution of both classical and biological problems. (prereq: MA-235, PH-2020, BE-2200) BE-382

Biophysical Phenomena: 4 0 4 Fluid and Mass Transport The objective of this course is to present the fundamental principles of classical fluid mechanics and mass transport, and to apply these principles to the solution of both classical and biomedical problems. (prereq: BE-381) BE-3900 Physiology and Bio-System Joint Laboratory 1 2 2 The objective of this laboratory is to present students with real-world biomedical engineering problems that overlap the fields of bio-systems and physiology. Students will look at problems/laboratories from a joint perspective which will enable students to solve multidisciplinary problems. This course is intended to advance a studentâ€™s understanding systems physiology and the materials introduced in BE-3100 and BE-3800. The primary goal of the course is to enhance their ability to apply principles learned in physiology and biomedical signals and systems to predict and modify behavior of continuous-time physiological signals and systems. The laboratory is designed to prepare students for upper-level courses in biomedical digital signal processing, advance medical instrumentation, medical imaging, and feedback control systems. (prereq: MA-3610, BE-2200; coreq: BE-3100) BE-3910 Physiology and Biotransport Joint Laboratory 1 2 2 The objective of this laboratory is to present students with real-world biomedical engineering problems that overlap the fields of biotransport and physiology. Students will look at problems/laboratories from a joint perspective which will enable students to solve multidisciplinary problems. (prereq: BE-2200; coreq: BE-3510, BE-3110) BE-3920

Biomaterials and Biomechanics 1 2 2 Joint Laboratory In this course, students investigate practical aspects of biomaterials and biomechanics. To the extent possible, biomaterials and biomechanic topics are investigated concurrently. Specific topics investigated typically include anthropometry, electromyography, human mechanical power and energy output, gate and ground reaction force measurements, biomechanical analysis of domestic and occupational activities, tissue stress-strain relationships, corrosion, chemical stability and industrial scale medical device production processes. (coreq: BE-411, BE-410) BE-4000 Biomedical Engineering Design V 2 3 3 This course is a continuation of the BE design sequence and the first in a series of Senior-level design courses. Particular emphasis is given to: the continued application and use of project management techniques and software; structured searching of the medical and engineering literature; use of available engineering and graphics software; and exploring biomedical 244

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

engineering career opportunities. Continued emphasis on design team development with specific emphasis on failure mode effects analysis (FMEA), institutional review board (IRB), and system testing. Level one design requirements will be presented at a formal design review. Continued use and maintenance of the engineering logbook is required. (prereq: BE-3002)

BE-4001 Biomedical Engineering Design VI 2 3 3 This course is a continuation of the BE design sequence and the second in a series of Seniorlevel design courses. Particular emphasis is given to: the continued application and use of project management techniques and software; structured searching of the medical and engineering literature; use of available engineering and graphics software; and exploring biomedical engineering career opportunities. Continued emphasis on design team development with specific emphasis on failure mode effects analysis (FMEA) for all levels of the design, institutional review board (IRB), and system testing. Final component level designs will be presented at a formal design review. Continued use and maintenance of the engineering logbook is required. (prereq: BE-4000) BE-4002 Biomedical Engineering Design VII 2 3 3 This course is the final course of the BE design sequence and the third in a series of Senior-level design courses. Particular emphasis is given to: the continued application and use of project management techniques and software; structured searching of the medical and engineering literature; use of available engineering and graphics software; and exploring biomedical engineering career opportunities. The teamâ€™s final designs will be presented at a formal design presentation and design show. Continued use and maintenance of the engineering logbook is required. (prereq: BE-4001) BE-4010 International Biomedical Regulations 3 0 3 The purpose of this course is to give students basic knowledge and experiences to work in the regulatory field in various biomedical engineering companies in the US or abroad. The course covers rules and regulations of biomedical product design and development in various countries including the US, Canada, EU, Japan, and Australia. (prereq: junior standing) BE-404 Biomedical Engineering Design I 1 3 2 This course is a continuation of the BE design sequence and the first in a series of senior-level design courses. Particular emphasis is given to the continued application and use of project management techniques and software, structured searching of medical and engineering literature, use of available engineering and graphics software, and exploring biomedical engineering career opportunities. Continued emphasis on design team development with specific emphasis on failure mode effects analysis (FMEA), institutional review board (IRB), and system testing. Level one design requirements will be presented at a formal design review. Continued use and maintenance of the engineering logbook is required. (prereq: BE-302, BE-306, BI-374, senior standing) BE-405 Biomedical Engineering Design II 1 3 2 This course is a continuation of the BE design sequence and the second in a series of seniorlevel design courses. Particular emphasis is given to the continued application and use of project management techniques and software, structured searching of medical and engineering literature, use of available engineering and graphics software, and exploring biomedical engineering career opportunities. Continued emphasis on design team development with specific emphasis on failure mode effects analysis (FMEA) for all levels of the design, institutional review board (IRB), and system testing. Final component level designs will be presented at a formal design review. Continued use and maintenance of the engineering logbook is required. (prereq: BE-404) BE-406 Biomedical Engineering Design III 1 3 2 This is the final course of the BE design sequence and the third in a series of senior-level design courses. Particular emphasis is given to the continued application and use of project management techniques and software, structured searching of medical and engineering literature, use of available engineering and graphics software, and exploring biomedical engineering career opportunities. The teamsâ€™ final designs will be presented at a formal design presentation and design show. Continued use and maintenance of the engineering logbook is required. (prereq: BE-405)

245

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

BE-410 Biomaterials 3 0 3 The objective of this course is to present the principles which apply to the properties and selection of materials used in medical applications. Topics include metals, ceramics, polymers, composites, biological tissues, wound healing, and the interaction between biological tissues and artificial materials. (prereq: BI-102, CH-222) BE-411 Biomechanics 3 0 3 This course is an introduction to the biomechanics of human movement, with applications to occupational, rehabilitation, forensic and sports biomechanics. Topics covered include kinematics; anthropometry; kinetics; mechanical work, energy, and power; synthesis of human movement; muscle mechanics; and kinesiological electromyography. (prereq: BE-3100) BE-417 Biomedical Electronics 3 3 4 This course is similar to BE-306 in philosophy and structure and should be taken immediately following BE-306. It expands the electronics coverage begun in BE-306 and combines it with topics previously studied in biology, chemistry and physiology to develop more complete measurement systems. Of particular interest are the production and distribution of biological signals, such as the ECG, EMG or EEG, and the electrodes and sensitive amplifiers needed to record them. Methods for reducing electrical noise and interference in the signals and conversion between analog and digital forms are included. Electronic feedback principles are applied to enhance system performance. (prereq: BE-306, BE-3110 or BE-374) BE-4311 Neural Signals and Systems 3 0 3 The objective of this course is to present the principles of signaling in the nervous system. The first part of the class looks at models, including the Goldman-Hodgkin-Katz Model, the HodgkinHuxley Model, linear cable theory, and volume conductors, to explain signaling in the nervous system. The second part of the class delves into external stimulation of nerves including waveform properties, recruitment characteristics, and electrode design. (prereq: senior standing) BE-433 Biomedical Digital Signal Processing 3 3 4 The objective of this course is to present the principles of digital signal processing and to have students apply these methods to the analysis of biological signals such as EEG and ECG. Topics covered include sampling, quantization, discrete-time system analysis, Z-transform, discrete and fast Fourier transform, transfer functions and digital filtering. In the laboratory, students are required to design software to perform analysis on various biopotential signals. (prereq: BE-307, BE-104, BE-261 or MA-3610, BI-373 or BE-3100) BE-460 Medical Imaging Systems 3 3 4 The objective of this course is to introduce students to the modalities of clinical medical imaging. Students will learn the physics of how an image is created and how imaging equipment acquires the image. Medical image processing techniques are also practiced. Topics include image formation, X-ray, computed tomography, ultrasound, magnetic resonance, nuclear and image processing. (prereq: BE-433) BE-4700 Biomedical Electronics 3 3 4 This course expands the electronics coverage begun in BE-3600 and combines it with topics previously studied in biology, chemistry and physiology to develop more complete measurement systems. Of particular interest are the production and distribution of biological signals, such as the ECG, EMG or EEG, and the electrodes and sensitive amplifiers needed to record them. Methods for reducing electrical noise and interference in the signals and conversion between analog and digital forms are included. Electronic feedback principles are applied to enhance system performance. (prereq: BE-3600) BE-471 Biomedical Control Systems: Analog 4 0 4 The objective of this course is to present topics in classical feedback control theory, introduce modern control theory, and to apply these topics to the solution of both classical and biological feedback control problems. (prereq: BE-307, BE-382, BE-417, BI-374 or BE-3110)

246

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

BE-472 Biomedical Feedback Control: Digital 3 3 4 This course is a continuation of BE-471. The topics covered include feedback control system frequency response, discrete-time systems, sampled-data systems, analysis and design of digital control systems, and an introduction to nonlinear system analysis. In the laboratory students are required to design, construct and test both analog and digital feedback control systems. (prereq: BE-471 or BE-4810) BE-4800 Biomedical Digital Signal Processing 2 3 3 The objective of this course is to present the principles of digital signal processing and to have students apply these methods to the analysis of biological signals such as EEG and ECG. Topics covered include sampling, discrete-time system analysis, Z-transform, discrete and fast Fourier transform, transfer functions and digital filtering. In the laboratory, students are required to design software to perform analysis on various biopotential signals. (prereq: BE-3800) BE-4810 Biomedical Feedback Control Systems I 3 3 4 This course introduces modeling techniques of the major types of dynamic engineering systems: mechanical translational, mechanical rotational, thermal, electromechanical, fluid and operational amplifier systems. The course will then present topics in classical feedback control theory, introduce modern control theory, and to apply these topics to the solution of both classical and biological feedback control problems. The laboratory will allow students to practice the application of feedback on biological systems. (prereq: BE-3800) BE-4820 Biomedical Feedback Control Systems II 3 3 4 This course is a continuation of BE-4810. The topics covered include feedback control system frequency response, discrete-time systems, sampled-data systems, analysis and design of digital control systems, and an introduction to nonlinear system analysis. In the laboratory students are required to design, construct and test both analog and digital feedback control systems. (prereq: BE-4810) BE-4830 Medical Imaging Systems 3 0 3 The objective of this course is to introduce students to the modalities of clinical medical imaging. Students will learn the physics of how an image is created and how imaging equipment acquires the image. Medical image processing techniques are also practiced. Topics include image formation, X-ray, computed tomography, ultrasound, magnetic resonance, nuclear and image processing. (prereq: BE-4800) BE-4980 Independent Study 0 0 3 A student enrolled in this course is afforded the opportunity to pursue a specialized topic in his or her chosen field of study. After an approved area of study has been selected, weekly meetings with the course advisor are required. A final report, the format of which is left to the discretion of the advisor, is required at the end of the term. (prereq: senior standing, permission of instructor and EECS department chair) BE-499 Clinical Internship 0 9 3 The senior biomedical engineering student has an elective option of working at one of the affiliated hospitals or medical laboratories. Students may apply for clinical internship positions; they are not assigned to students. Each clinical internship must be approved by the advising faculty member, the biomedical engineering program director and the EECS department chair prior to registration. Comprehensive documentation in the form of an engineering logbook, including all aspects of the internship, must be submitted to the biomedical engineering program director at the end of the internship. (prereq: senior standing, written consent of the BE program director and EECS department chair) BI-102 Cell Biology and Genetics 3 3 4 The objective of this course is to introduce students to cell biology and genetics. Topics include chemical bonds, macromolecules, cell structure and function, cellular respiration, cell signaling, cellular reproduction and genetics. In the laboratory, students must demonstrate proficiency in the scientific process, and will gain proficiency in basic laboratory techniques, experimental design, data recording and scientific report writing. (prereq: one year of high school chemistry or CH-090)

247

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

BI-172 Human Anatomy and Physiology I 3 0 3 The objective of this course is to present the basic principles of functional human anatomy and physiology that apply to homeostasis, histology, the integumentary system, bone tissue, the skeletal system, muscle tissue, the muscular system, and the central nervous system. (coreq: BI-102) BI-2020 Cellular Microbiology 3 3 4 This course introduces students to the basics of environmental microbiology and the increasing importance of microorganisms in engineering. Topics include: the diversity of the microbial world, controls of microbial growth and metabolism, microbial molecular biology and genetics, ecology and symbiosis, engineered environmental systems, food and industrial microbiology, feasibility of bio-remediation strategies and engineering appropriate controls to prevent undesired microbial infestation. (prereq: BI-102, CH-223) BI-256 Microbiology 3 3 4 This course introduces students to the basics of microbiology and the importance of this topic in health care. Topics include microbial characteristics and pathogenesis, and general and specific immune reactions to bacteria, viruses, fungi and parasites. Epidemiology and infection control of the more common microbial diseases are also covered. The laboratory includes topics of microscopy, staining techniques, and elements of microbial nutrition, growth, metabolism and antibiotic sensitivity. (prereq: BI-102) BI-260 Nutrition 2 0 2 This course introduces nutritional concepts as they relate to human health and fitness. Topics include a basic introduction to nutrition covering carbohydrates, lipids, proteins, vitamins and minerals. Further topics include â€œwhat is a healthy diet,â€? metabolism, energy balance and the impact of nutrition on health and disease. (prereq: BI-102, CH-223) BI-273 Human Anatomy and Physiology II 3 3 4 The objective of this course is to present the basic principles of functional human anatomy and physiology that apply to homeostasis, nervous tissue, the sense organs, the circulatory system and the immune system. (prereq: BI-172) BI-274 Human Anatomy and Physiology III 3 3 4 The objective of this course is to present the basic principles of functional human anatomy and physiology that apply to homeostasis, the endocrine system, the respiratory system, the urinary system, water and electrolyte balance, the digestive system, and the reproductive systems and development. (prereq: BI-172) BI-3100

Physiology I

The objective of this course is to present the basic principles of human physiology which apply to homeostasis, cell membrane potentials and transport mechanisms, nerve and muscle, the heart and the circulatory system. (prereq: BI-102, CH-223, MA-3610)

BI-3110 Physiology II 3 0 3 The objective of this course is to present the basic principles of human physiology which apply to the microcirculation and the lymphatic system, the blood, the respiratory system, the renal system, the gastrointestinal system and the endocrine system. (prereq: BI-3100) BI-373 Physiology I 3 3 4 The objective of this course is to present the basic principles of human physiology which apply to homeostasis, cell membrane potentials and transport mechanisms, nerve and muscle, and heart and the circulatory system. (prereq: BI-102, CH-223, BE 361 or MA-3610) BI-374 Physiology II 3 3 4 The objective of this course is to present the basic principles of human physiology which apply to the microcirculation and the lymphatic system, the blood, the respiratory system, the renal system, the gastrointestinal system and the endocrine system. (prereq: BI-373)

248

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CE-1900 Digital Logic I: Combinational Systems 2 2 3 This course introduces combinational logic analysis and design. The topics include digital signals, binary numbers, logic gates, logic families, combinational building blocks, Boolean algebra, combinational circuit analysis, and combinational circuit design techniques. Emphasis is placed on the VHDL hardware description language as a vehicle for circuit description and simulation. Laboratory exercises require the student to design, simulate, implement, and test a wide range of digital circuits using standard logic families and programmable logic devices. CE-1910 Digital Logic II: Sequential Systems 2 2 3 This course introduces sequential logic analysis and design. The topics include flip-flops, registers, counters, shift-registers, algorithmic state machines, and memories. Emphasis is placed on the VHDL hardware description language as a vehicle for circuit description and simulation. Laboratory exercises require the student to design, simulate, implement, and test a wide range of digital circuits using standard logic families and programmable logic devices. (prereq: CE-1900) CE-2800 Embedded Systems I 3 3 4 This course presents assembly language programming as the bridge between hardware and high-level programming languages. Topics covered include the addressing modes, register file, and instruction set of a microcontroller; subsystems such as timers and analog to digital conversion; and interrupts. Software control of hardware is stressed. In the laboratory, students design software to demonstrate proficiency in these areas. (prereq: CE-1900, SE-1011 or SE 1010) CE-2810 Embedded Systems II 2 2 3 This course builds on CE-2800 and introduces C as a high-level language for embedded systems programming. C pointers and C functions are introduced. Parameter passing by value versus using pointers is described. Interrupts in C are introduced and then the C/assembly interface is described. Designing modular applications by use of multiple files is described. Several subsystems, such as the USART and Timer system, are introduced. Key concepts are applied in laboratory exercises. (prereq: CE-2800, SE-1011 or SE-1010) CE-2811 Embedded Systems II 3 3 4 This class builds on CE-2800 and introduces C as a high-level language for embedded systems programming. C pointers are introduced. C functions are introduced. Parameter passing by value versus using pointers is described. Interrupts in C are introduced and then the C/assembly interface is described. Designing modular applications by use of multiple files is described. Several subsystems, such as the USART and Timer system, are introduced. Key concepts are applied in laboratory exercises. (prereq: CE-2800, SE-1011) CE-2930 Introduction to Computer Architecture 3 2 4 This course introduces the concepts of computer architecture and performance trade-offs that must be made in the design of computer systems. Topics covered include reduced instruction set computers, instruction set design options, processor implementation, pipelining and memory hierarchy. The lectures are reinforced through laboratory projects that require students to design and simulate the data path and control circuitry of a reduced instruction set microprocessor. (prereq: CE-1910, CE-2800) CE-3100 Digital Electronic Interfacing 3 3 4 General purpose computers use electronic circuits to interface to the memory and I/O devices specified in the system architecture. Similarly, embedded computers use electronic circuits to interface to sensors and actuators for closed-loop system control. Interfacing circuits can be broadly categorized as digital-to-digital, analog-to-digital, digital-to-analog, large-signal drivers, and power circuitry. This course examines common circuits from all five categories. Topics include the standard TTL and CMOS logic families, analog-to-digital signal conditioning circuits designed using operational amplifiers, digital-to-analog conversion using standard solid-state components, large-signal biasing of BJT and MOSFET drivers, and the use of diodes in signal shaping and power circuits. (prereq: PH-360, EE-2070, CE-1900) 249

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CE-3200 Wireless Sensor Networks 2 2 3 Mass sensor networks are an important part of modern industrial, environmental, security, and military systems. Remote sensors eliminate the need for complex processing at each local node. Instead, processing can be completed at a distant master control computer. Remote sensors send information to control computers either by self-initiating a communication cycle or as a response to a command from the control computer. Wireless networking technology allows the sensor nodes to operate autonomously without a tethered connection. This class introduces the theories of sensor networks as well as common standards such as IEEE 802.15.4 (ZigBee) and IEEE 1451. Topics are explored through lectures, homework assignments and laboratory projects. (prereq: CE-2810 or EE-2930) CE-3910 Embedded Systems III 3 2 4 This course is the third in the embedded system sequence. In this course students will apply the knowledge acquired in CE-2800 and CE-2810 to carry out the design of an embedded system. Topics will include a review of assembly language and C programming, a review of interrupt driven I/O and review of systems such as the USART, ADC, the timer/counter and others. The I2C system will be introduced. In addition, interface timing will be examined to determine the timing compatibility between external devices and the micro-controller. (prereq: CE-2810 or CE-2811; coreq: CE-3100 or EE-210 or consent of instructor) CE-4000 Senior Design Project I 2 2 3 This is the first course in the senior design sequence in which each student team works on a design project from conception through implementation and testing. The team first explores technology issues related to the project and then prepares a complete design. Teams meet regularly with the instructor to track technical and project management issues. Written reports and oral presentations are required. (prereq: completion of core courses through junior year (a maximum of two may be missing), or approved plan of study to complete the degree by the following Fall Quarter) CE-4010 Senior Design Project II 2 2 3 This is the second course in the senior design sequence. In this course, the student team implements the design developed in CE-4000. Teams meet regularly with the instructor to track technical and project management issues. Complete project documentation, written reports and oral presentations are required. (prereq: CE-4000 taken in the same academic year) CE-4020 Senior Design Project III 2 2 3 This is the third course in the senior design sequence, in which each student team works on a design project from conception through implementation and testing. Teams meet regularly with the instructor to track technical and project management issues. Written reports and oral presentations are required. (prereq: CE-4010 taken in the same academic year) CE-4920 Embedded Systems IV 2 2 3 This is the final course in the embedded systems sequence. Lecture material introduces formal design techniques including lifecycle modeling, the use of technical standards, the creation of requirements and specification documents, the creation of test plans, and system performance profiling. A rigorous set of laboratory exercises review and reinforce the material from the prerequisite courses. The laboratories also extend the student knowledge base by adding exercises in embedded operating systems, power management techniques, and the use of FPGAs in embedded systems. (prereq: CE-3910, CS-3841)

250

CE-4930 Computer Architecture II 3 0 3 Modern microprocessor architectures extend pipelined micro-architecture in a number of ways in order to exploit instruction-level parallelism (ILP) and thread-level parallelism (TLP). Deep pipelines, superscalar pipelines, out-of-order instruction execution, instruction re-ordering and speculative execution are example techniques exploiting ILP. Similarly, multiprocessor techniques such as maintaining a coherent shared memory among multiple cores are examples that exploit thread-level parallelism. These examples challenge the fundamental architectural concept of single-instruction per clock-cycle and result in circuits that improve performance and enrich the user experience. This course explores these topics through lecture, in-class problems, reading assignments and homework. (prereq: CE-2930)

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CE-4950 Networking I 2 2 3 This course presents principles of data communication and computer networks, with emphasis on the physical and data link layers of communication networks. Topics include: network topology, the principles of signaling on physical links, transmission media, modulation, error control, flow control, LANs, and Ethernet protocols. The laboratory includes experiments on data communication signaling and error control. The laboratory also includes a course project involving both hardware and software aspects of network systems. (prereq: CE-2810 or CE-2811or EE-2930) CE-4960 Networking II 2 2 3 This course introduces the data transfer and software aspects of networks common in computing. The layered architecture of the modern Internet is studied with a focus on many of the common protocols used to transfer information and to provide services. The laboratory projects will provide an opportunity for teams of students to implement servers and clients using some of the protocols. (prereq: CS-3841) CE-498 Topics in Computer Engineering 3 0 3 This course allows for study of emerging topics in computer engineering that are not present in the curriculum. Topics of mutual interest to faculty and students will be explored. (prereq: consent of instructor) CE-499 Independent Study 1 0 3 A student enrolled in this course is afforded the opportunity to pursue a specialized topic in his or her chosen field of study. After an approved area of study has been selected, weekly meetings with the course advisor are required. A final report, the format of which is left to the discretion of the advisor, is required at the end of the term. (prereq: junior or senior standing, consent of instructor and EECS department chair) CH-090 Preparations for Chemistry 3 3 4 This is a prerequisite course to be taken by students who have not had one year of high school chemistry or equivalent, with a grade level of B or better. This course includes: classification and properties of matter, atomic structure, chemical bonding, chemical equations and calculations, physical states of matter, and chemical and physical properties of matter and solutions. Laboratory experiments support lecture topics. This is a prerequisite course, and does not meet the graduation requirements for any program at MSOE. (prereq: MA-125 or two years of high school algebra) CH-103 Principles of Chemistry 3 2 4 This course is intended to provide students in nontechnical fields with the fundamentals in chemistry. Topics include atomic structure, chemical bonding, and properties of matter and solutions. This course satisfies the science laboratory portion of the general education requirement. Not for credit for students who have credit in CH-100, CH-200, or CH-310 (prereq: MA-125 or two years of high school algebra) CH-171 The World of Biotechnology 3 2 4 This course is designed to provide a broad understanding of the emerging field of biotechnology. It provides a unique opportunity for students to gain knowledge of essential concepts and hands-on experience with gene and protein manipulations. Students are also expected to gain an understanding of the commercial uses of genetic engineering and cloning technologies. This will open new doors for future engineers and business leaders, and is also essential for a well informed citizen. Do not miss out on the â€˜Biotech Revolution,â€™ be a part of it. (prereq: CH-103 or CH-200, high school biology.) CH-199 Project in Chemistry 0 0 0 Students are given the opportunity to pursue an approved subject not covered in regularly scheduled course work. This may take the form of individual or small group studies, literature surveys, and laboratory or research projects. Weekly meetings with the course advisor are required. A final report to be filed in the Physics and Chemistry Department may also be required. This course is offered to students with freshman or sophomore standing and may be taken for variable credit. Students with junior or senior standing should request CH-499. (prereq: consent of the course advisor, and the Physics and Chemistry Department chairman)

251

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CH-200 Chemistry I 3 2 4 This is a general chemistry course for students in engineering and nursing degree programs. Students will design and conduct experiments, analyze and interpret data and relate experimental results to theoretical understandings of chemical phenomena. Specifically, students will more thoroughly understand such subjects as basic chemical calculations, nomenclature, atomic structure, intra- and intermolecular forces, kinetic molecular theory, properties of gases, and solutions. Not for credit for students who have credit for CH-100, CH103 or CH-310. (prereq: CH-090 or one year of high school chemistry with a grade of B or better) CH-201 Chemistry II 3 2 4 This general chemistry course is a continuation of CH-200 for students in engineering programs and students interested in chemistry. Students will design and conduct experiments, analyze and interpret data and relate experimental results to theoretical understandings of chemical phenomena. Corrosion, electrochemistry, oxidation-reduction, types of solids, semiconductors, crystalline materials, rates of reactions, acid-base theory, buffers and chemical equilibria are covered. Optional topics covered might include a description of electrical conductivity in electrical insulators, semiconductors and conductors. (prereq: CH-200 or CH-2100H) CH-2050 General Chemistry for Life Sciences 3 2 4 The course introduces the fundamental concepts of chemistry. Students will learn about measurement units, elements, atoms, periodic table, and the quantitative aspects of chemistry. They will study the nature of compounds, apply gas laws to human body; learn the basis of radiochemistry and its application in nuclear medicine. Learn acid base chemistry and study of colligative properties such as osmosis. Radioactivity and its medical applications concludes the general chemistry sequence (not open to engineering majors) (prereq: high school chemistry) CH-2100H Honors Chemistry I 3 2 4 This is a general chemistry course for students in the honors program at MSOE. Students will explore chemistry concepts in an inquiry-based learning structure by engaging in the following activities: experimental work, experimental design, data analysis and summary of concepts derived from experience. Students will meet in a laboratory to integrate the experimental experience with learning the chemical concepts. The course will emphasize scientific investigation. Specifically, students will thoroughly understand such subjects as basic chemical calculations, nomenclature, atomic structure, intra- and intermolecular forces, kinetic molecular theory, properties of gases, and solutions. Not for credit for students who have credit for CH-100, CH-103, or CH-200 or CH-310. (prereq: one year of high school chemistry and acceptance in MSOE Honors Program) CH-222 Organic Chemistry I 2 2 3 The major concepts and themes of organic chemistry are introduced in this course. Theory and laboratory work on the principles of organic chemistry, properties and interrelationships of important classes of organic compounds. The roles of such compounds in the metabolic processes are explained. Students are introduced to basic mechanisms of organic reactions and alerted to the industrial, biomedical, academic and personal applications and uses of organic materials. (prereq: CH-200) CH-223 Biochemistry 3 2 4 Knowledge of biochemistry is essential in disciplines like medicine, nutrition, pharmacology, environmental studies and agriculture. Completion of the human genome sequence project has brought the field into a new light. This course is designed to train and educate students with essential and central concepts, principles and applications of biochemistry. The design of the course enhances the ability of students to address changes, needs and demands of their own major fields as well. The course covers theory and lab-practice to prepare students for the higher technical and intellectual challenges in the field of biochemistry. (prereq: CH-222) CH-2250 Organic Chemistry for Life Sciences 2 2 3 The course concisely focuses on what students need to know in order to continue with biochemistry in the next quarter. Basic nomenclature rules will be introduced. Important functional groups involved in biological molecules will be studied. This includes alcohols, 252

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

amines, amides, aldehydes and ketones, carboxylic acids and their derivatives. Correlations will be made with important biomolecules such as neurotransmitters, cholesterol, and proteins. (not open to engineering majors) (prereq: CH-2050)

CH-2260 Biochemistry for Life Sciences 3 2 4 This course introduces students to biomolecules, proteins, carbohydrates, lipids, and nucleic acids in relation to human physiology. Structure and function and their roles in the human body will be discussed. Structure and functions of hormones and neurotransmitters will be studied. Enzymes and their roles in metabolism will be discussed. Application of computers and online data bases such as Medline in the study of biomolecules will be introduced. (not open to engineering majors) (prereq: CH-2250) CH-302 Chemistry III 3 0 3 This elective has been designed to provide students with the third quarter of a one-year general chemistry course. This allows students to more thoroughly understand such subjects as thermochemistry, electrochemistry, solution chemistry and the chemical theories relevant to conductors, semiconductors and transition metals. CH-302, a three-credit course, allows students to meet the general chemistry requirements for graduate school and medical school when taking the CH-303 Lab component (a one-credit laboratory course offered in a subsequent quarter), and specifically covers material that is normally found on the MCAT and FE/PE exams. (prereq: CH-201) CH-303 Chemistry III LAB 0 2 1 This elective has been designed to provide students with the third-quarter lab part of a one-year general chemistry course. This allows students to more thoroughly understand such subjects as thermodynamics, the chemistry of the various phases of matter, transition metals and solution chemistry. CH-303 lab, a one-credit lab course (when taken along with CH-302, a three-credit course), allows students to meet the general chemistry requirements for graduate school and medical school, and covers material normally found on the MCAT and FE/PE exams. (coreq: CH-302) CH-310 Applied Chemistry 3 2 4 This is a junior level general chemistry course for students taking only one quarter of chemistry. The course includes classification and properties of matter, atomic structure, chemical bonding, chemical equations, physical states of matter and intermolecular forces. The relationship between chemical properties and the mechanical and electrical properties of materials is also studied. Not for credit for students who have credit for CH-100, CH-103 or CH-200. (prereq: MA-128 or MA-129, PH-113) CH-322 Organic Chemistry II 3 0 3 This elective is specially designed to meet the organic chemistry requirements for admission to medical school. The concepts learned in this class will be useful in understanding medical biochemistry and biotechnology. The principles of organic chemistry learned in Organic Chemistry I are further developed to understand in-depth reaction mechanisms. This understanding of organic reactions will be useful in learning roles of organic molecules involved in various metabolic processes in living systems. Organic chemistry is of immense importance to technology also. It is the chemistry of dyes and drugs, paper and ink, paints and plastics, gasoline and rubber tires, the food we eat and the clothing we wear. Students will be introduced to such industrial and commercial applications of organic molecules. (prereq: CH-222, CH-223) CH-323 Organic Chemistry II LAB 0 4 2 This elective has been designed together with CH-222, CH-223 and CH-322 to meet the organic chemistry laboratory requirement for admission to medical school. (prereq: CH-322) CH-350 Chemistry of Building Materials 3 0 3 This course is for undergraduate architectural engineering and construction management students. It provides an introduction to the chemistry of building construction materials, and shows how chemical bonding at the microscopic level explains macroscopic properties of common construction materials, including metals (steel, aluminum, copper), inorganics (cement, concrete, masonry) and molecular materials (wood, asphalt, polymers). Cannot be taken for credit with AE-1231. (prereq: CH-200) 253

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CH-352 Introduction to Environmental Chemistry 3 0 3 The purpose of this course is to introduce engineering students with little previous chemistry background to chemical principles used in the study of environmental chemistry. One theme of this course is the importance of understanding how natural biogeochemical processes operate and have operated over a variety of timescales. Such an understanding provides baseline information against which the effects of human perturbations of chemical processes can be quantified. Another theme covered is the importance of understanding how engineering choices impact environmental chemistry. (prereq: CH-200 and junior standing) CH-353 Fundamentals of Environmental Chemistry 3 0 3 Engineers, in their professional lives as well as their private ones, greatly impact our environment, both positively and negatively. In this course, the basic chemistry principles discussed in Chemistry I (CH-200) are applied to provide an understanding of the environment, and to explain what effect certain actions have on it. Natural processes in the atmosphere, waterways, and solid waste system are explained, disruptions to the natural systems are chronicled, and then solutions to these disruptions are suggested. Since there are no cut and dried answers to environmental problems, nor are these problems static in their identity or scope, a process of scientific thinking will be stressed throughout the course. (prereq: CH-200 and junior standing) CH-3650 Chemistry of Materials 2 2 3 The basic chemistry principles discussed in Chemistry and Physics I (CH-200) are applied to exploring the structure and properties of bulk materials. The class will focus on understanding how the structural characteristics of the atoms and molecules in a material affect the physical and chemical properties of the material. Materials will be considered on the nanoscopic level to explain macroscopic phenomena. Topics may include conductivity of materials, characterization of solids, solid solutions, nanoparticles, nanostructured devices, materials syntheses, allotropes of carbon, electrons in materials, polymetric materials and composites. (prereq: CH-200 or CH- 2100H, PH-2030) CH-3660 Surface Properties of Materials 3 0 3 This is a materialsâ€™ chemistry course appropriate for junior-level students from all engineering majors. The course includes basic description of physics and chemistry of surfaces and their relation to surface properties of materials. The emphasis of the course is to provide students with knowledge on several important modern applications of surface chemistry: surface chemical reactions (catalytic converters and fuel cells), thin films and their application as lubricants, coatings and novel electronic materials, improving friction and wear properties of surfaces through chemical modification. A substantial part of the course is devoted to surface nanotechnology - an introduction to the design, manufacturing and characterization of various nanomaterials and nanodevices on surfaces and their potential applications. (prereq: CH-200, PH-220, PH-230) CH-371 Modern Biotechnology 2 2 3 The field of biotechnology is the science of the future. The techniques used in biotechnology are presently bringing changes to every possible aspect of our life including careers, economy and all natural and social sciences. This elective course is designed for all interested students. The subject matter of this course changes every time it is offered in order to keep pace with a fastgrowing field. Lectures are focused on important and timely topics, as well as the theory of most critical techniques that are the backbone of areas like bioengineering, biomolecular engineering, protein engineering and the biotech industry. Students have hands-on learning of the techniques during lab sessions. The course also covers the history, ethics and societal impact of biotechnology. (prereq: CH-200) CH-373 Advanced Biotechnology 2 2 3 Biotechnology is an applied science that is part of our daily lives. Medicine, veterinary practice, vaccine production, fertility control and livestock breeding are a few examples of the fields in which biotechnology is already practiced. Agricultural, chemical, environmental, and food industries, are also using biotechnology to their advantage which is directly affecting the social 254

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

and economical aspects of life. The core of this elective course covers concepts, procedures and techniques used in the areas of advanced biotechnology. (prereq: CH-200)

CH-401 Topics in Chemistry 0 0 3 This course covers current topics in chemistry that are not covered in other classes. Topics and structure, as well as credits, may vary. Faculty areas of expertise and possible topics for this course are listed on the Physics and Chemistry Department pages in the undergraduate catalog and on the Web. Groups of students interested in a particular topic should contact the appropriate faculty member well in advance of registration for the quarter. Credit in this course will be determined after consultation with the instructor. (prereq: consent of instructor) CH-499 Independent Study 1 0 3 Students are given the opportunity to pursue an approved subject not covered in regularly scheduled course work. This may take the form of individual or small group studies, literature surveys, and laboratory or research projects. Weekly meetings with the course advisor are required. A final report to be filed in the Physics and Chemistry Department may also be required. This course is offered to students with junior or senior standing. Students with freshman or sophomore standing should request CH-199. (prereq: consent of the course advisor, and the Physics and Chemistry Department Chairman.) CM-212 Surveying 2 3 3 Course presents the methods and principles of field execution and office procedures required in construction surveying, with an emphasis on typical building layout requirements. Topics include leveling, traversing, site considerations, plumbing of the structure, and general usage of optical and digital instruments. Required mathematical analysis is integrated. (prereq: MA-126, or high school trigonometry) CM-224 Construction Estimating I 3 0 3 Course provides a working knowledge of processes and information applied to order-ofmagnitude and budget-level construction cost estimates during preconstruction. Learning includes components of direct and indirect construction costs; cost database, work breakdown, and estimate structure using CSI UniFormat and MasterFormat; contingency and risk; and estimate adjustments for productivity. Automated techniques for construction estimates are applied. Ethical considerations in budgeting and estimating are looked at. (prereq: AE-2211 or AE-2212) CM-3011 Project Management for AEs and CMs 3 0 3 This course introduces students to the construction project cycle, emphasizing preconstruction activities: project planning, requests for proposals, value management, constructability, management information systems, scheduling of preconstruction tasks and typical preconstruction conferences. It teaches typical roles and responsibilities of project team members to enable effective student interaction during the senior design project. Students write and present a summary of a construction management topic from a recent peer-reviewed journal article. (prereq: AE-225) CM-3013

Construction Project Financial and 3 0 3 Cost Control Provides a working knowledge of cost engineering practices and techniques applied to construction project cost management and control activities to optimize project financial returns. (prereq: CM-3011, MS-354; coreq: MS-356) CM-3021 Business and Construction Law 4 0 4 Students gain a working knowledge of elemental aspects of construction and general business law and legal concepts-to include legally sufficient and proper routine administrative processes. Students gain understanding of construction and general business risks and ethics, to enhance their decision-making skills as construction project team members. (prereq: AE-225)

255

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CM-3022 Business and Construction Law 3 0 3 Students gain a working knowledge of elemental aspects of construction and general business law and legal concepts to include legally sufficient and proper routine administrative processes. Students gain understanding of construction and general business risks and ethics, to enhance their decision-making skills as construction project team members. (prereq: AE-225) CM-311 Construction Site Engineering Issues 2 2 3 Course discusses advanced building construction methods as a follow-on course to AE-2211, Building Construction Methods. Topics such as concrete forming systems, soils analysis, site drainage, site mobilization, storm water management, temporary work/structures, and LEED construction operations are covered within the context of quality assurance and control, logistics, planning, regulatory requirements, and decision-making. (prereq: AE-2211, AE-225) CM-312 Advanced Building Construction Methods 3 0 3 and Site Engineering Issues This course discusses advanced building construction methods as a continuation of AE-2212, Building Construction Methods. Topics such as concrete forming, soils analysis, site drainage, site mobilization, storm water management, temporary work structures, and LEED construction operations are covered within the context of quality assurance and control, logistics, planning, regulatory requirements and decision-making. (prereq: AE-2212) CM-316

Building Electrical and Communication 3 2 4 Systems for CM Students will develop a working knowledge of building electrical and communication systems components and their functioning, to enable effective installation planning, scheduling and cost estimation by the construction manager. (prereq: AE-3611) CM-3161

Building Electrical and Communication 3 0 3 Systems for CM Students will develop a working knowledge of building electrical and communication systems components and their functioning, to enable effective installation planning, scheduling and cost estimation by the construction manager. (prereq: AE-3612) CM-318

Building Environmental and 3 2 4 Mechanical Systems for CM Students will develop a working knowledge of building HVAC, sanitary, and other mechanical systems components and their functioning, to enable effective installation planning, scheduling and cost estimation by the construction manager. (prereq: AE-3111) CM-3181

Building Environmental and 3 0 3 Mechanical Systems for CM Students will develop a working knowledge of building HVAC, sanitary, and other mechanical systems components and their functioning, to enable effective installation planning, scheduling and cost estimation by the construction manager. (prereq: AE-3112) CM-3210 Construction Scheduling 3 2 4 Course imparts a working knowledge of construction project scheduling techniques, especially the critical path method for network analysis, to enable determination of dates and durations of project activities. Includes exercises in network logic and constraints, forward and backward passes, critical path and float, cost crashing, resource leveling, and PERT. Concept of a work breakdown structure is integrated. Study begins with manual techniques, but shifts to gain skill with common scheduling software. (prereq: CM-325; coreq: CM-3011) CM-325 Construction Estimating II 3 2 4 This course teaches the methodology, procedures and organizational techniques involved in preparing a competitive bid. Detailed estimates for each major construction discipline are prepared, based upon real construction project documents. Ethical considerations in budgeting and estimating are discussed. The final project is the preparation of a formal competitive bid on a project. (prereq: CM-224) 256

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CM-3411

Construction Equipment and 3 0 3 Safety Management for CMs Purpose is to develop the construction manager’s working knowledge of equipment types associated with building construction, their functions and management, and aspects of general job safety management. (prereq: junior standing) CM-3417 Construction Equipment Management 3 0 3 This course provides a working knowledge of powered equipment types and other jobsite systems commonly applied in methods of building construction. Internal rental rate compilation, buy-lease-rent and repair-replace decisions, maintenance management, detailed determination of costs and schedule relating to building foundation construction and to crane lifting operations are some of the topics introduced. Equipment operations for horizontal construction are only briefly included. (prereq: AE-2211, MS-356; coreq: CM-311) CM-4002 Sustainable Design and Construction 3 0 3 This course will cover all aspects of sustainable design and construction that constitute the development of new structures within the built environment. Course material will focus on the design, engineering, and construction aspects of sustainable construction and how the construction manager guides the project team to meet the owner’s objectives of a sustainable facility through the LEED® certification process. Other sustainable initiatives used in the international built environment will be discussed. (prereq: AE-4121) CM-4311 Construction Project Management I 3 2 4 Course emphasizes construction phase activities, building on learning of CM-3011 and preparing CM students for requirements during later assignments of the senior design project. Construction project management software is introduced. (prereq: CM-321 or CM-3210, CM-3011, senior standing) CM-4321 Construction Project Management II 2 2 3 Course further develops skills and knowledge necessary for effective management of construction phase activities. Exercises require application of software to reinforce integration of detailed estimating, bidding, and scheduling skills. Ethical imperatives are discussed. (prereq: CM-4311, CM-3013) CM-4511 Construction Safety Management 2 0 2 This course provides a working knowledge of OSHA Standard as they relate to the construction industry. Safety requirements, public protection, insurance issues and contract language responsibilities are some of the topics introduced. (prereq: CM-3011) CM-4711

Architectural Engineering and Construction 1 1 1 Management Design-Build Senior Project I This course is the first of a three-part series in designing a building for an actual client using the design-build project delivery system. The course emphasizes development of the required building program a designer must complete in order to understand a client’s building requirements of users, spaces, building function and budget. This program is then used in the other two senior project courses, AE-4721/CM-4721 and AE-4731/CM-4731, as a basis for the design of the building. Other topics include organization, team building, client interviewing skills, LEED and sustainable development, space analysis, building code review, building type research, value engineering and CADD. Note: BSAE students should register for AE-4711; BSCM students should register for CM-4711; five-year two-degree BSAE/BSCM students should register for AE-4711 in their fourth year and CM-4711 in their fifth year. Must take in consecutive terms with AE-4721/CM-4721, followed by AE-4731/CM-4731. (prereq: CM-321 or, CM-3210, CM-3011 and senior standing; coreq: AE-4411)

257

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CM-4712

Architectural Engineering and Construction 1 2 2 Management Design-Build Senior Project I This course is the first part of a three-part series in designing a building for a real life client using the design build project delivery method. The course concentrates on preparing and developing the required "program" a designer must complete in order to understand the clientâ€™s building and design goals and requirements. The students must understand spatial relationships, building users, building codes and budget constraints in the development of the final program. The program is then used in the other senior project courses, AE-4721/CM-4721 and AE4731/CM-4731, as a basis of the design for the building. Other topics include team organization, team building, client interviewing skills, LEED and sustainable development, space analysis, building code review, building type research, Building Information Modeling (BIM) and CAD. Note: BSAE students should register for AE-4712 in their fourth year and CM-4712 in their fifth year. BSCM students should register for CM-4712; five-year two-degree BSAE/BSCM students should register for AE-4712 in their fourth year and CM-4712 in their fifth year. Students must take this course in consecutive terms with AE-4721/CM-4721, followed by AE-4731/CM-4731. (prereq: senior standing or fifth year standing in BSAE/BSCM five-year program, major GPA greater than 2.00, CM-3210, CM-325, CM-3011; coreq: AE-4311) CM-4721

Architectural Engineering and Construction 1 3 3 Management Design-Build Senior Project II This is the second of the three-part senior project series. This is a team taught course, taught by architects, structural engineers, HVAC engineers, plumbing and fire protection engineers, building electrical power distribution engineers, and construction managers. It continues to emphasize the design-build process and requires an interdisciplinary team of students to utilize their respective engineering design specialty courses or construction management expertise as they design a building and plan for its construction by using estimating, scheduling, budgeting and construction project management techniques. The following phases will be completed: (1) site analysis; (2) preliminary architectural drawings and presentations; (3) architectural design development drawings; (4) preliminary engineering (structural, environmental, electrical) systems analysis; (5) preliminary budget analysis; (6) project scheduling and (7) ongoing project management responsibilities; (8) presentation to clients and other professionals. Note: Fouryear BSAE students must register for AE-4721; four-year BSCM students must register for CM4721; five-year BASE/BSCM two-degree students must register for AE-4721 in their fourth year and for CM-4721 in their fifth year. The three-course sequence 4711/4721/4731 must be taken in consecutive quarters during the same academic year. (prereq: senior standing, CM-4712) CM-4731

258

CS-150

Introduction to Computer Programming

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

In this course, students develop a working knowledge of designing and implementing computer programs to solve problems encountered in engineering practice. Structured programming technique is introduced in this course. Particular emphasis is placed on problem investigation, algorithm development, flowchart development, pseudocode development, coding, execution, debugging and documentation. Topics covered include data types, assignment statements, I/O statements, control constructs, looping techniques, arrays and vectors, user-defined functions and library functions. Data visualization is also discussed. Problems related to engineering applications are emphasized. The high-level computer language C++ is used to illustrate and implement the topics. (coreq: MA-127 or equivalent)

CS-2510 Introduction to Object-oriented Programming 2 2 3 This course introduces object-oriented programming to students who have experience in structured programming techniques. Particular emphasis is placed on the design and implementation of computer programs to solve problems encountered in engineering practice. Topics include introduction to object concepts, describing, declaring and developing userdefined classes and objects, constructors and destructors, abstraction, function overloading, inheritance, polymorphism, encapsulation, operator overloading, pointers and dynamic memory. A high-level computer language such as C++ will be used to illustrate and implement the topics. The lab sessions of the course will be used to design software for engineering applications. (prereq: EE-1910 or equivalent, MA-137 or MA-225) CS-2550 Concepts of Data Structures and Algorithms 2 2 3 This course covers the organization of data and the algorithms that act upon them. The fundamentals of how to store, retrieve, and process data efficiently is covered. Emphasis is placed on fundamental data structures and algorithms for search, sorting, and dynamic programming. The topics of stacks, queues, trees, sets, and hash maps are introduced. Fundamentals of algorithm performance are introduced with an emphasis placed on computational time and space complexity analysis. Laboratory activities include the application of data structures and algorithms from standard libraries using scripting and high-level object oriented languages. (prereq: BE-2200 or equivalent) CS-2710 Computer Organization 3 0 3 This course provides students with an introduction to the structure of computer hardware, including the components of a modern computer system as well as the tradeoffs necessary to construct such a system. Specific course topics include numeric systems, the role of performance in designing computer systems, Amdahlâ€™s Law, instruction formats, addressing modes, computer arithmetic with both fixed and floating point numbers, single cycle and multi-cycle data-path design, pipelining, the memory hierarchy, caching, and parallel processing using SIMD and MIMD formats. Students will develop small, assembly language programs on a simulator as a means of exploring instruction formats and data-path operation. (prereq: CE-1900) CS-2852 Data Structures 3 2 4 This course covers the organization of data and the algorithms that act upon them. The topics of arrays, linked lists, stacks, queues, trees, sets, and hash tables are introduced. Fundamentals of algorithm performance are also introduced, with an emphasis placed on time complexity analysis. Laboratory activities include implementation of data structures as well as the application of data structures from standard libraries. (prereq: SE-1021) CS-2910 Network Protocols 2 2 3 This course provides an introduction to the principles and practice of computer networking with emphasis on the Internet and related protocols, including HTTP, FTP, SSH, SFTP, SMTP, and TCP/IP. The course also introduces the structure, components, and functionality of layered network architectures including packet switching, error control, window flow control, the physical layer, network layer, congestion control, quality of service, multicast, and local area networks (Ethernet, Token Ring; FDDI). (prereq: CS-2852) 259

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CS-321 Computer Graphics 3 3 4 This course introduces students to computer applications for the visualization of information. Algorithms, data structures, graphics primitives and graphics standards are discussed in addition to hardware aspects of interactive computer graphics. Topics such as 2-D and 3-D transformations, graphics libraries and clipping algorithms are presented. Laboratory exercises using industry-standard graphics packages provide opportunities for students to develop interactive graphics algorithms and applications. (prereq: CE-2810 or CE-2811 or SE-2040 and CS-2852) CS-3841 Design of Operating Systems 3 2 4 This course introduces the design and implementation of modern operating systems. Topics covered include the history of operating systems, process synchronization and scheduling, deadlock detection and avoidance, memory management, file systems, protection and security, and input/output systems. Laboratory projects provide experience in using operating system facilities available on a Unix-like system. C++ is introduced as an objected-oriented systems programming language. (prereq: CE-2810 or CE-2811 and CS-2852 or CS-2851) CS-3844 Operating Systems 3 0 3 This course introduces students to the design and implementation of modern operating systems. Topics covered include the history of operating systems, process synchronization and scheduling, deadlock detection and avoidance, memory management, file systems, protection and security, and input/output systems. Students will be exposed to the POSIX interface through lecture and homework assignments. (prereq: SE-2040 or consent of instructor) CS-3851 Algorithms 3 2 4 This course extends the study of algorithms introduced in CS-2852. Topics covered include searching, sorting, selection, graph structures, traversal algorithms and P/NP complete problems. Applications such as data compression and optimization problems are also discussed. Laboratory activities include the implementation and comparison of problemspecific algorithms. (prereq: CS-2852, MA-3320 or MA-230) CS-386 Introduction to Database Systems 2 2 3 This course introduces the theory and practice of database design and application, with emphasis on relational and object-oriented models. Topics include the SQL data definition and manipulation language, database design using normalization techniques, application program interfaces, authentication and access control, concurrency and performance optimization. Lab assignments reinforce the lecture material. (prereq: CS-2852, MA-2310 or MA-230) CS-409 Ethical and Professional Issues in Computing 1 0 1 This course provides an opportunity for students to deepen their understanding of ethical and professional issues encountered by engineers in computing-related disciplines. Typical course topics include privacy and security, safety and risk, conflict of interest, environmental concerns, professional codes of ethics, whistle-blowing, liability, intellectual property, registration and certification, and the impact of computing on society. (prereq: HU-432, senior standing or consent of instructor) CS-421 Advanced Computer Graphics 2 2 3 In this course, students explore the field of interactive 3-D computer graphics. Lecture topics provide theoretical and practical knowledge of common 3-D graphics algorithms and techniques. Laboratory exercises focus on the creation of interactive 3-D applications using existing software libraries. The course culminates in a student-chosen design project implementing various aspects of 3-D graphics. (prereq: CS-321 or CS-3212 or SE-2811) CS-4220 Web Software Applications 2 2 3 This course is an introduction to the development of Web-based applications and services using various technologies. Topics covered include XHTML/CSS, Javascript, Ajax, servlets, server-side scripting, sessions, security, and interaction with relational databases. (prereq: CS-386 or consent of instructor, SE-1021 or equivalent, and understanding of HTML is presumed) 260

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CS-4230 Distributed and Cloud Computing 2 2 3 This course provides an introduction to the concepts, architecture, and programming techniques in high-performance distributed computing environments. An emphasis is placed on scalable web services applications. Topics include cloud computing, data processing in large clusters, distributed and parallel data processing, distributed storage systems, virtualization, secure distributed computing, and programming of multicore and GPU architectures. Students will study state-of-the-art solutions developed by Google, Amazon, VMWare, Yahoo, Microsoft, Sun/Oracle, and the research community. Topics may vary to reflect the current state-of-the-art and student interest. Students will apply what they learn in a series of introductory lab exercises and a complete a final project using a distributed computing platform. (prereq: CS-2852) CS-470 Computer Modeling and Simulation 3 2 4 This course introduces students to modeling and simulation of continuous and discrete-event engineering systems. The course topics also include computer simulation of communication and computer networks. Applications of artificial intelligence methods such as expert systems, neural networks and fuzzy logic are discussed, as is the use of parallel processing in computer simulation. In the laboratory portion of this course, students develop computer models for engineering systems using higher-level general computer language. (prereq: MA-235, MA-262) CS-4802 Digital Image Processing 2 2 3 This course provides an introduction to digital image processing techniques. Topics covered include point processes, area processes, geometric processes, digital half-toning and image transforms. Applications such as image enhancement, image restoration, image analysis and color enhancement are also discussed. Laboratory activities include the implementation and comparison of digital image processing techniques. (prereq: CS-2852 or CS-2510, MA-262, senior standing or consent of instructor) CS-4881 Artificial Intelligence 2 2 3 This course provides an introduction to basic concepts of artificially intelligent systems. Topics covered include knowledge representation, search strategies and machine learning. The course introduces modern machine learning techniques for supervised, unsupervised, and reinforcement learning and describes the role of artificial intelligence (AI) in engineering and computing systems. Practical exercises permit students to apply AI tools and languages to suitable problems. (prereq: CS-2852, MA-2310 or MA-230) CS-4920 Information Security 3 0 3 This course provides a survey of computer security consisting of the business case for security, principles of security, classes of vulnerabilities (e.g., buffer overrun), and the principles of cryptography. Cryptography topics are covered in depth, including secret and public key methods, stream ciphers, and related tools and standards such as Kerberos and PGP. (prereq: CS-3844 or CS-3841, MA-2310 or MA-230) CS-493 Advanced Digital Design 2 2 3 This course introduces the student to the use of VHDL as a simulation and synthesis tool for the design of digital systems. Case studies are presented to illustrate the use of VHDL in providing both behavioral and structural design descriptions. Students complete several projects in which they design, simulate and synthesize a variety of digital systems. (prereq: CE-2930) CV-100 Introduction to Civil Engineering 3 0 3 This course provides an introduction to the civil engineering profession. Students will learn about the historical development of civil engineering, and gain an appreciation of the importance that political, legal, environmental, social, and economic issues have on the practice of civil engineering. Students will learn about career paths in civil engineering, and the roles that engineers in each of the major areas of specialization within civil engineering have in the design and construction process. The importance of professional and ethical responsibilities will be emphasized through case studies and example scenarios. Finally, the course provides students with an introduction to the principles of sustainability and sustainable design and construction practices in the civil engineering context. 261

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CV-310 Water Resources Engineering 3 2 4 Water resources engineering and management can be divided into three areas of study: water supply management, water excess management, and water quality management (e.g. environmental protection). This course focuses on the first two areas, and provides students with an introduction to the analysis and design of hydrologic and hydraulic processes. Topics covered include an overview of fresh water resources (quality and quantity), the hydrologic cycle, precipitation, evaporation, infiltration, evapotranspiration, and sediment transport processes, water withdrawal and uses, and a review a basic hydraulics principles from fluid mechanics with expanded coverage of selected topics in closed conduit flow (e.g., hydroelectric power generation), and open channel flow (e.g., gradually-varied and rapidly varied flow). (prereq: AE-213, MA-235, MA-262) CV-320

Environmental Engineering

Environmental engineering addresses the design and operation of systems for water pollution control, air pollution control, and the management of solid and hazardous (including radioactive) wastes. Topics include environmental mass and energy balances, water and wastewater treatment, air pollution control, solid waste collection, disposal, and recycling, the potential for biogas recovery and utilization at wastewater treatment plants and municipal solid waste landfills, and an introduction to environmental laws, regulations and the discharge permitting process. (prereq: CH-201, MA-137)

CV-322 Environmental Laboratory 2 2 3 Emphasizes laboratory methods and interpretation of laboratory results for the physical, chemical, and biological analyses of environmental samples, including those used to characterize water and wastewater treatment operations, surface water systems, and soil and ground water (prereq: CH-201, CH-222) CV-370 Geotechnical Engineering 3 2 4 Introduction to the fundamental principles of soil mechanics. Topics include elementary mass/volume relations for soils, soil types and classifications, soil compaction, geostatic stress distributions, shear strength under drained and un-drained conditions, bearing capacity, settlement, and consolidation. The laboratory will cover test methods and interpretation of laboratory results for the determination of physical, mechanical, and hydraulic properties of soil. (prereq: AE-1231, AE-2011) CV-380 Transportation Engineering 4 0 4 The characteristics and functions of highway, air, rail, and other modes of urban and intercity transportation. Fundamentals of transportation systems design, operations, and planning. Evaluation of costs, benefits, and environmental considerations. (prereq: junior standing) CV-410 Hydrology 3 0 3 This course provides in-depth coverage of the principles of hydrology, building upon the introductory material covered in CV-310. Topics include the development of storm water hydrographs, modeling rainfall-runoff using HEC-HMS, reservoir and stream flow routing, probability, risk and uncertainty analysis in hydrologic design and the use of GIS in hydrologic analysis. (prereq: CV-310) CV-411 Storm Water Management Systems Design 4 0 4 This course applies the hydrologic principles learned in CV-410 to the analysis and design of systems for the management of storm water runoff. Topics include floodplain management and flood control alternatives, the design of roadway drainage systems including sewers, ditches, subdivision storm water management system design, construction site erosion control plans, best management practices, water quality modeling of urban developments, wetland mitigation and shoreline protection. (prereq: CV-410)

262

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CV-415 Hydraulics 3 2 4 This course develops and expands upon the hydraulic principles studied in CV-310. Topics include classroom theory and laboratory investigation of hydraulic machinery (turbines, pumps, gates, and valves), hydraulic structures (weirs, orifices, culverts, and gates), flood control and open channel flow phenomena. Sedimentation processes and erosion hydraulics will be studied, and methods developed to estimate sediment loads, reservoir sedimentation, stream stability at highway structures, and bridge scour. HEC-RAS will be used to perform 1-D steady flow and sediment transport modeling of river flows. (prereq: CV-310) CV-416 Analysis and Design of Sewerage Systems 4 0 4 This course provides an introduction to the design and rehabilitation of sewage collection systems and pump stations/force mains. Topics covered in the design of wastewater collection systems include the hydraulics of piping networks, network simulation methods using SWMM, infiltration and inflow control, and flow transients (e.g., water hammer). Topics covered in the design of sewage collection systems include sewer networks (open channel flow and mixedflow), scour in sewers, ancillary structures (valve boxes, manholes, metering stations, diversion structures), corrosion protection, and bedding/backfilling requirements. (prereq: CV-415) CV-418

Analysis and Design of Water 3 0 3 Distribution Systems Provides an introduction to the analysis, modeling and design of potable water distribution systems. Topics include the design and analysis of piping networks, pump stations, water towers and the use of GIS data in systems analysis; development of design conditions; identification of design standards. (prereq: CV-415) CV-420 Municipal Wastewater Treatment Plant Design 4 0 4 Provides an introduction to the planning, design and operation of municipal wastewater treatment plants. Course topics include design of unit operations and processes common to municipal wastewater treatment, solids treatment and disposal, and an introduction to plant operation and control. (prereq: CV-320, CV-322) CV-421 Unit Operations and Processes Laboratory 2 3 3 Combination of classroom study and laboratory investigation of unit operations and processes used in water and wastewater treatment. Biological processes include activated sludge and anaerobic digestion; physical/chemical operations and processes include coagulation/flocculation/precipitation, sedimentation, filtration, and adsorption/ion exchange. (prereq: BI-102, CV-320, CV-322) CV-430 Solid Waste Engineering and Design 4 0 4 Integrated solid waste management systems of the 21st century must address a number of interrelated issues, including source reduction, recycling and reuse, waste collection and transportation, and the disposal of wastes not otherwise recycled or reused. This course addresses the design of systems for the collection, transport, storage, and disposal of solid wastes with a focus on municipal solid waste (MSW). Specific topics include methods of waste characterization, collection systems design, and the design of landfills and emerging thermal processing systems. (prereq: CH-201, CV-320, CV-370) CV-440 Design of Air Pollution Control Systems 3 0 3 Presents strategies for waste minimization and pollution prevention, and introduces concepts of air pollution control design and the regulatory and environmental concerns associated with air pollution control. Covers sources of air pollution and available control options, the design process, applications, and case studies. (prereq: CV-320) CV-470 Foundation Design 4 0 4 The principles of soil mechanics are applied to the design of foundations. Covers the analysis and design of shallow foundations, concrete anchorages, retaining walls, piers and piles. (prereq: CV-370, AE-3021)

263

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CV-490 Senior Design Project I 3 0 3 Students will apply their academic knowledge of civil and environmental engineering systems to the design of a real-world project as part of a multi-disciplinary project team. There are a number of potential types of projects that can be used to satisfy the senior design project requirements; e.g., (1) national design competitions, (2) international service projects with organizations such as Engineers Without Borders (EWB), (3) projects solicited from or offered by local municipal entities or businesses, or (4) projects proposed by students (with approval by the Program Director). In this first quarter, students design teams are organized and paired with a faculty advisor. Lectures address the design process, engineering specifications, and library research techniques. The quarter culminates in the production of a detailed design proposal. (prereq: senior standing) CV-492 Senior Design Project II 1 0 3 This course is a continuation of CV-490. Students are expected to develop preliminary design documents for their project, including plans, specifications, and an estimate of capital costs for detailed engineering design and construction. The students must then orally present and defend the design before a review committee. (prereq: CV-490) CV-510 Water Quality Analysis and Modeling 3 0 3 Topics include the development of water quality criteria for surface and ground waters, modeling water quality in rivers, lakes, and reservoirs, determining waste assimilative capacities and developing total maximum daily loads (TMDLs) for receiving waters, water toxicity and bioassays, and mixing zone studies. (prereq: CV-310) CV-550 Physical Hydrogeology 3 0 3 Topics include groundwater occurrence, geologic properties of groundwater systems, recharge sources and discharge sinks, Darcyâ€™s Law of groundwater movement, differential equations of groundwater flow, solutions of steady and unsteady groundwater flow equations, pumping test design, groundwater modeling, and groundwater field methods. (prereq: CV-410, MA-235) CV-552

Contaminant Hydrogeology and 3 0 3 Groundwater Remediation Topics include identifying sources of groundwater contamination, types and properties of contaminants, advection, dispersion and diffusion contaminant migration mechanisms, contaminant transport equations, contaminant transport modeling, groundwater investigation and monitoring, and remediation of contaminated groundwater to meet risk and regulatory requirements. (prereq: CV-550) CV-554

Ground Water and Soil Remediation 3 0 3 Technologies This course presents an overview of techniques to be used to clean up existing pollutants in soil, water or air in the vicinity of hazardous waste sites. Emphasis is on the remediation of preexisting pollution rather than on pollution prevention strategies. Topics to be covered include the following: (1) surface water control strategies such as capping of surface impoundments, floating lagoon covers, grading, revegetation, diversion and collection; (2) groundwater contaminant clean-up and control strategies such as groundwater pumping, subsurface drains, subsurface barriers, and groundwater treatment procedures such as air and steam stripping, carbon absorption, biological treatment, ion exchange absorption, chemical treatments and reverse osmosis; (3) soil remediation procedures such as in-situ bioremediation, chemical remediation, soil flushing and physical treatment techniques; (4) procedures for the control of gas emissions and fugitive dust control from surface impoundments and landfills; (5) waste, soil and sediment disposal techniques; (6) monitoring strategies for remediated sites and leak detection strategies; and (7) remediation of leaking underground storage tanks (LUST). (prereq: graduate standing in MSEV program or department consent)

264

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CV-611 Environmental Chemistry 3 2 4 Course topics include the following: (1) electroneutrality and its application to water analysis; (2) rates of chemical and biochemical reactions; (3) acid-base reactions and the carbonate system; (4) complexation reactions and chelation; (5) precipitation and dissolution reactions; (6) oxidation-reduction reactions; and (7) adsorption reactions. Modeling of aqueous equilibrium reactions will be performed using MINEQL+. (prereq: CH-201, CH-222, graduate standing) CV-614 Environmental Microbiology 3 0 3 This course covers the basic morphology, biology and distribution of the major microbial groups: viruses, bacteria, fungi, protozoa and algae. Distribution of pathogenic microorganisms (and their surrogates) in the environment, and the methods used for their quantification and control are examined. Microbial growth and metabolism, and the resultant molecular transformations, are studied. The activities of microbes in specific habitats (i.e., biofilms, rhizobia, aquifers) are explored. Particular attention is given to microbes used to help solve environmental problems and to those that create environmental problems. (prereq: BI-102, graduate standing) CV-710 Environmental Statistics and Modeling 3 0 3 This course covers topics in statistics needed for the statistical analyses of water, air, and other environmental systems. It also presents methods for developing statistical models. Specific topics include: (1) determining if significant differences exist between data sets using parametric and non-parametric methods, (2) experimental design, (3) constructing linear and non-linear regression models, (4) developing Monte Carlo models, (5) analyzing time-series, and (6) special topics. (prereq: MA-262, graduate standing) CV-715 Open Channel Hydraulics 3 0 3 Analysis of flow in open channels, including gradually varied flow (backwater and other flow profiles, flood routing) and rapidly varied flow (hydraulic jump, spillways); the design of open channels, including considerations of flood control and sediment transport, scour, and channel stabilization. (prereq: CV-415, graduate standing) CV-720

Design of Biological Wastewater 3 0 3 Treatment Processes This course will provide advanced coverage of design principles for biological unit processes used in wastewater treatment. Aerobic systems include the activated sludge process, sequencing batch reactors, oxidation ditches, and stabilization ponds; anaerobic systems include anaerobic digesters, anaerobic contact units, and upflow anaerobic sludge blanket (UASB) reactors. The course will also address options for the removal of nitrogen and phosphorus using biological methods. (prereq: CV-420 or CV 421, graduate standing) CV-722 Design of Water Treatment Systems 3 0 3 This course will present the fundamental physical, chemical and biological principles, governing water treatment for potable and ultrapure purposes. Design options are then presented for each major water treatment process. (prereq: CV-320, CV-322, graduate standing) CV-724 Industrial Wastewater Treatment 3 0 3 Course topics include the following: (1) review of treatment standards and regulations as mandated by the Clean Water Act, Resources Conservation and Recovery Act (RCRA) and various industrial standards; (2) presentation of the unit treatment processes for industrial water and wastewater pretreatment, including pH adjustment, equalization, coagulation and flocculation, activated carbon absorption, microfiltration, ultrafiltration, reverse osmosis, ion exchange, greensand filters/iron removal, evaporation, disinfection and oxidation processes, settling tanks, and oil and hydrocarbon removal.

265

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

CV-730 Pollution Prevention and Waste Minimization 3 0 3 The U.S. Congress passed the Pollution Prevention Act of 1990, which states that pollution should be prevented or reduced at the source whenever feasible. This course is an introduction to both hazardous (RCRA Subtitle C) and solid (RCRA Subtitle D) waste management and strategies for source reduction of these wastes. Students are expected to complete a project that involves defining a baseline situation (process maps, generator status, applicable laws and regulations and current costs), researching alternatives, and proposing a strategy that effectively reduces wastes generated, reduces life-cycle environmental impacts and is cost effective. (prereq: graduate standing) CV-740 Air Permitting 3 0 3 The federal Clean Air Act of 1970 established national ambient-air quality standards (NAAQS) along with federal new source performance standards (NSPSs) and hazardous air pollutant emission standards (NESHAPs). In the Clean Air Act Amendments of 1990, federal permitting and enforcement of these standards was introduced in the Title V operating permit regulations. This course will introduce the student to the Title V permitting process. Specific topics addressed include reviewing Title V requirements, determining when a permit is required, describing the process for applying for permits, determining permit compliance, and understanding MACT, BACT, RACT, and LAER requirements. (prereq: senior standing) CV-750

Plant Safety/OSHA Issues

Course topics include the following: (1) federal regulations governing worker occupational safety and health; (2) an overview of the Occupational Safety and Health Administration; (3) a brief survey of human anatomy, physiology and pathology of the lungs, skin, ears and eyes within the context of potential industrial pathogens, chemical irritants or physical hazards; (4) identification and evaluation of industrial hazards including solvents, particulates, dermatoses, industrial noise, radiation, temperature extremes, ergonomically incompatible equipment and biological hazards; (5) techniques for the control of hazards, including ventilation, protective equipment, noise reduction strategies, principles of ergonomic design and product substitutions; and (6) case studies in designing and implementing an industrial hygiene program for various types of industries, including a description of the necessary record keeping, paperwork and documentation required. (prereq: graduate standing)

CV-752 Risk Assessment and Environmental Auditing 3 0 3 Course topics include the following: (1) a review of the environmental risk assessment process; (2) a review of environmental auditing procedures, including an introduction to ISO 14,000 and its impact on the environmental auditing process; (3) an overview of federal requirements relating to environmental assessments and impact statements; 4) a project involving the conducting of an actual audit of a facility; and 5) a project involving the review ad assessment of the risk assessment process used in developing an existing regulation. (prereq: graduate standing) CV-756

Environmental Project Management/ 3 0 3 Life Cycle Cost Analysis This course presents techniques for assessing the merit of various technical solutions to environmental problems based on life cycle costs and considerations of sustainability. Included in any life cycle cost analysis are estimates of both long-and short-term liability costs that represent a large proportion of the overall exposure a company or client faces when implementing a program to manage environmental wastes. This course also addresses product life cycle and sustainability from a corporate perspective, and covers techniques that businesses can use to evaluate the competency of environmental consultants. (prereq: graduate standing) CV-760 Environmental Law 3 0 3 This course presents case law and regulations relating to all areas of environmental compliance needed by the practicing environmental engineer. Specific topics include common law liability issues; insurance; the rule-making process; the federal National Environmental Policy Act (NEPA); surface and groundwater regulations, including the Clean Water Act (CWA) and the Oil Pollution Act; regulations relating to solid waste and recycling, and to hazardous wastes, including the Resource Conservation and Recovery Act (RCRA); laws relating to brownfields redevelopment; Sara Title III and community right-to-know laws; OSHA regulations; the Toxic 266

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

Substances Control Act; Department of Transportation (DOT) regulations relating to shipments of wastes; the Clean Air Act (CAA); and laws relating to new source construction and major source operation permits. (prereq: graduate standing)

CV-800 Research and Writing 3 0 3 This course is designed to equip students with the research and writing skills necessary to successfully complete the CVE capstone design project. After selecting a capstone topic, the student will learn how to use the MSOE libraryâ€™s online databases and print/electronic resources to locate relevant and credible literature, as well as other sources of information. In conjunction with an ongoing critical assessment of their proposed capstone topics, students will evaluate the source material to refine their topics, and to articulate questions and issues for further investigation. After an introduction to the purposes and methods of literature reviews in technical writing, students will be required to write a review of the literature read during the term. Weekly referencing exercises and writing discussions will help the student master the MSOE Style Guide. The course will culminate in a written capstone project proposal that is required prior to commencing CV-890. (prereq: graduate standing, consent of program director) CV-890 Capstone Design Project I 3 0 3 This is the first quarter of a capstone design course in which the student selects an environmental problem requiring resolution and proposes a comprehensive solution. The solution proposed must meet all technical standards and regulatory guidelines. Requirements of the first quarter of the course include the following: (1) complete the literature review begun in CV-800; (2) develop primary and alternative solution strategies with consideration given to the relative risks and short and long-term liabilities associated with each; and (3) prepare a work schedule detailing tasks to be performed during the detailed design and evaluation phase of the project in the second quarter of the course. The course will culminate with an oral presentation by the student providing an overview of the project before a faculty review committee. (prereq: CV-800) CV-892 Capstone Design Project II 3 0 3 This is the second quarter of the capstone design course and is a follow-on to CV-890. Requirements of the second quarter of the course include the following: (1) performance of the detailed technical design for the project; (2) preparation of a final written report detailing the project. The report shall include as a minimum: (i) background on the project and a description of the environmental problem being solved; (ii) a literature review of previously encountered problems of a similar nature and of any relevant technologies; (iii) a description of the solution methodology chosen for the project, including a discussion of any alternative strategies that were considered during the design phase; (iv) a presentation of the final design including details of the economics of the proposed design, as well as technical specifications and completed regulatory paperwork); and (4) an oral presentation of the project before a faculty review committee. (prereq: CV-890) EB-1000 Introduction to BioMolecular Engineering 1 0 1 The course introduces students to biomolecular engineering and its role as a profession in addressing contemporary technological, social, ethical, and economic issues in todayâ€™s world. The course highlights the history of molecular biology and its integration, with physics and chemistry, into the engineering fields; the fusion of biology-based disciplines into chemical engineering; and new areas of biomolecular engineering such as cell and protein engineering (biobricks), synthetic biology, and smart polymers processing. Lecture topics include examples of how biomolecular engineers can incorporate a wide range of biosciences with physics and chemistry, to develop new products, improve process efficiencies, and alleviate strain on the ecosystem through the design of novel environmentally advantageous processes. Biomolecular modeling is introduced. EB-1100 BioMolecular Engineering Seminar I 1 0 0 This is the first in a series of four seminar courses. Seminars are presented on current subjects relevant to biomolecular engineering. Attendance is required. The seminars will highlight exciting new areas being advanced by biomolecular engineers. One of the goals of the course is to assist students in acquiring skills such as critical thinking, communication, public speaking and participation in discussion of controversial ideas. Students engage in readings on seminar topics, attend the seminar, and then participate in discussions facilitated by course instructors. 267

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EB-2000 BioMolecular Lab Safety and Ethics 1 0 1 This course provides basic knowledge of laboratory safety including: safety regulations, potential hazards, personal protective equipment, elementary toxicology, good laboratory practice, and engineering controls. The course focuses on how to accomplish regulatory compliance, minimize hazards, and reduce the severity of any incidents that may occur in a laboratory. Ethical controversies brought about by advances in life sciences, biotechnology and medicine are discussed. Ethical questions connected with the impact of the life sciences and biotechnology on medicine, politics, law, and philosophy are discussed in terms of global applications of biomolecular engineering. (prereq: sophomore standing) EB-2100 BioMolecular Engineering Seminar II 1 0 0 This seminar course, second in the series of four, follows the pattern of EB-1100. Seminars relevant to biomolecular engineering will be presented. Attendance is required. The course builds on concepts initiated in EB-1100. Students attend the seminar, engage in related reading and participate in discussions facilitated by the course instructors. (prereq: EB-1100) EB-2240 Engineering Applications in Biochemistry 2 2 3 Extensions of the principles of biochemistry are applied to biomolecular engineering. The course provides exposure to topics including enzyme catalysis and kinetics, metabolic pathways, their regulation and associated bioenergetics and designing an enzyme or drug. The interplay of biochemistry, molecular biology, biomolecular and biochemical engineering problems is examined. Laboratory experiments reinforce the concepts from lectures, with an emphasis on applied methods and designed alterations of molecular properties of biomolecules. (prereq: BI-102, CH-223) EB-2410 Principles of Biotechnology 2 2 3 Principles of cell biology, biochemistry, and molecular biology are summarized from an engineering perspective, and examples of biologically based molecular technologies and industrial biochemical processes are presented. Lectures focus on the theory of critical techniques that are the backbone of the biotechnological industry. Students have opportunities for hands-on application of techniques during lab sessions. History, ethics and societal impact of biotechnology are discussed. (prereq: EB-2000, BI-2020) EB-2510 Thermodynamics I 3 0 3 The course focuses on the first and second laws of thermodynamics and their applications to biochemical and biomolecular systems. Thermodynamic properties of pure substances and mixtures; phase equilibrium; heat effects in batch and flow processes; reversibility and entropy; and refrigeration cycles are explored. (prereq: MA-235, PH-2030) EB-2910 Genomics in Engineering 3 0 3 The course focuses on the genome and proteome of various model organisms, structural and functional comparisons of the genome and proteome of various species and biological implications of their differences. In addition the course provides an introduction to the principal aims, technologies, and statistical issues arising in structural and functional genomics and proteomics. Design, engineering and manipulations of the natural and artificial genome and proteome are discussed. Data sources that contribute to protein structure analysis such as X-ray crystallography, NMR, MALDI, SELDI, and mass spectrometry are discussed. In addition students learn about engineering applications of stem cells, synthetic biology and metabolic processes. (prereq: EB-2240; coreq: EB-2410) EB-3100 BioMolecular Engineering Seminar III 1 0 1 Third in the series of four courses, seminars in this course are presented by guest speakers from industry and academia, by faculty members of MSOE, and by the juniors and seniors of the BioMolecular Engineering program. Seminars will focus on current topics relevant to biomolecular engineering. Students will learn to critique, analyze, present and discuss the current research, methods, techniques, machines and concepts in a group discussion setting. The course permits juniors and seniors of the program to interact and learn from each other. One seminar, annually, will address lab safety and ethical issues. (prereq: EB-2100) 268

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EB-3410 Applications of Biotechnology 2 2 3 The course covers concepts, procedures and techniques of biotechnology. An overview of important features of modern biotechnology from a chemical and biomolecular engineering perspective is provided. Bio-separation and bio-transport processes and qualitative and quantitative control techniques, social and economic impacts of biotechnology on chemical and bioindustries are discussed. Laboratory experiments reinforce the concepts from the lecture, and emphasize techniques used in biotechnological engineering. (prereq: EB-2410) EB-3420 Bioinformatics I 2 2 3 This course is an introduction to bioinformatics. It covers basic concepts that launch bioinformatics and computational biology tools. Methods established by nucleic acids, proteins sequences, and the structure-function relationships of biomolecules are discussed. The course involves the creation and development of information management and computational technologies e.g., algorithms for problems in biology and biomolecular engineering, including methods that use computer databases and online tools and resources to store, retrieve, and manage biological information. Topics range from NCBIâ€™s Entrez, to Prosite and the PDB. (prereq: CS-2550, EB-2910) EB-3430 Bioinformatics II 2 2 3 This course introduces students to the practical application of structure and sequence analysis, database searching and molecular modeling techniques to study protein sequence, structure and function. Amino acid properties and protein secondary structures are reviewed. Internet resources, molecular visualization software, and computational algorithms will be introduced for structure analysis. Students gain practical experience in using software techniques and internet resources to handle and compare sequence and structure information, search databases and interpret protein structure. Popular software tools employed in bioinformatics research are covered. (prereq: EB-3420) EB-3510 Thermodynamics II 4 0 4 This course surveys the use and application of classical thermodynamics to biological systems. It covers the application of the First and Second Laws of thermodynamics to living systems. Thermodynamic concepts such as free energy and equilibrium are used to examine biomolecular reactions, energy conversion, enzyme behavior, protein structure and folding, membrane transport and molecular pharmacology. (prereq: EB-2510, EB-2910) EB-3530

Cell Culture Laboratory 1 4 3 for BioMolecular Engineers The course presents valuable hands-on experience in cell culturing aseptic techniques and their applications in genome and protein engineering. Basics of cell culture techniques, controls and conditions of cell culture, safety aspects of cell culture, types of cell culture, cell environment, cryopreservation and storage of cell lines, good cell banking practices, alternative cell culture systems, process protocols, bioreactor design and operation, plant cell culture, bacterial and yeast cell culture, fermentation kinetics, microbial growth models, mass and energy balance, mass transport phenomena of cellular systems and emerging technologies will be discussed and practiced. (prereq: EB-3410) EB-3560

Unit Operations-Production 2 4 4 Scale Bioseparations This course applies the principles of phase equilibrium, transport processes and chemical kinetics to the design and characterization of batch and continuous separation processes. Both graphical and rigorous numerical techniques are used. The general procedures applicable to various processes are emphasized. Sample problems are drawn from environmental, biological biomolecular and nano-systems and the chemical, food and biochemical processing industries. Laboratory topics include quantitative synthesis and analysis techniques related to common production scale operations, including media preparation and sterilization, filtration, sedimentation, extraction, adsorption and ion exchange, production chromatography, membrane based methods, precipitation, crystallization, conventional drying and cryodesiccation. (prereq: CH-201, EB-2910, EB-3510, EB-3620) 269

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EB-3570 Kinetics and Bioreactor Design 4 0 4 This course addresses the selection of the optimal configuration and size of production scale bioreactors for specific applications. The design of fermentation reactors and cell culture type bioreactors and their applications will be discussed. Course topics include: types of operation, reactor types, substrate consumption kinetics, production kinetics for biochemicals and biomass, batch reactor kinetics, semi-continuous reactor kinetics, continuous reactor kinetics, and fundamental reaction parameters. Course material is applied to practical reactor selection, sizing, scale-up and operation. (prereq: BI-102, CH-223, EB-3510, EB-3620) EB-3610 Transport Phenomena I 4 0 4 Basic principles of mass, energy, and momentum conservation are used to drive the integral and differential forms of the transport equations and the fundamental operations of vector analysis. These equations are used to solve fluid flow and simple heat and mass transport problems of theoretical, pedagogical and practical interest. Transport through common biochemical processing equipment including pipes and reactors are considered in detail. (prereq: MA-235) EB-3620 Transport Phenomena II 4 0 4 This course covers concepts, procedures and techniques related to the application of heat and mass transfer principles to the process of heat exchange, evaporation, condensation, boiling and drying operations in biological and biomolecular systems. Integral and differential transport equations are applied to the solution of heat and mass transfer problems of interest to biomolecular engineers. The analysis and solution of mass and heat transfer problems involving conduction, convection, and radiation are discussed. Analogies between heat, mass and momentum problems and mass transfer in biological systems are the focus. (prereq: EB-3610) EB-4000 Biopolymer Engineering 3 0 3 The course introduces various classes of biopolymers and biomaterials and their applications in selected subspecialties. An understanding of material bulk and surface properties, biological responses to the materials, clinical context, manufacturing processes, cost, sterilization, packaging and regulatory issues in terms of developing and engineering polymers are stressed. Topics range from characterization techniques, processes tailoring specific properties, and separation of materials to processing, production and thermodynamics. (prereq: CH-201, EB-2910) EB-4100 BioMolecular Engineering Seminar IV 1 0 1 Last in the sequence of four courses, seminars are presented by guest speakers from industry and academia, MSOE faculty members, and by the seniors and juniors of the BioMolecular Engineering Program. Seminars cover current topics relevant to biomolecular engineering. Students will learn to critique, analyze, present and discuss the current research, methods, techniques, machines and concepts in a group discussion setting. The course allows juniors and seniors of the program to interact and learn from each other. One seminar, annually, will address lab safety and ethical issues. (prereq: EB-3100) EB-4200 Bioanalytical Instrumentation 1 4 3 This course introduces bioprobing, bioanalyzing and high throughput data technology that define the field of biomolecular engineering. Topics include: mass spectroscopy, Fouriertransform infrared spectroscopy (FTIR), electron microscopy (EM), atomic force microscopy (AFM), and microarrays/sequencing. Principles, design and application of techniques in the biomolecular engineering field are presented. (prereq: MA-3710, PH-2030, EB-2410) EB-4300 Metabolic Engineering and Synthetic Biology 2 3 3 The course presents an overview of the latest advances to modulate intracellular pathways using recombinant DNA and other manipulation techniques for engineering, biotechnological, medical, environmental, energy, and other applications. Specific application areas covered in discussions range from improved cellular performance for production of biopharmaceuticals, degradation of toxins, generation of novel drugs and cell therapies, to energy generation from microbial sources. Existing research problems in biomolecular engineering are used to illustrate principles in the design of biomolecules, genetic circuits and complex biological systems with emphasis on experimental approaches to design. Design and fabrication of new biological 270

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

components and systems or the re-design and fabrication of existing biological systems are discussed. Laboratory experiments reinforce the concepts from lecture emphasizing engineering and controls of synthetic biotools. (prereq: MA-3710, EB-2910, EB-3410, EB-3530)

EB-4400 Molecular Nanotechnology 3 0 3 This course explores the underlying science behind nanotechnology, the tools used to create and characterize nanostructures, and potential applications of such devices. The infusion of nanotechnology into areas of food safety, agriculture, medicine, healthcare, the environment, energy supply, consumer goods, biomaterials and bio-based engineering disciplines are explored. Potential risks of nanotechnology are discussed. The course covers topics that range from a brief review of the physical principles of electric fields and forces and the nature of chemical bonds to the current and future applications of nanotechnology and self-assembly. (prereq: PH-3710, EB-2240) EB-4510 Process Design and Control 3 0 3 The course provides the conceptual and procedural tools for the design and evaluation of complex, multistep industrial scale biomolecular processes. It presents students opportunities to apply the concepts learned in previous courses to the design and analysis of a biomolecular processing system. Instrumentation and control, multiple operation processes for the separation, purification and/or concentration of biological and biomolecular products are addressed. Supporting material includes: computer-aided design (process simulation), economic analysis, process safety, flow sheet synthesis (conceptual design), and decisionmaking analysis (optimization). (prereq: EB-3530, EB-3560) EB-4520 Engineering of Controlled Drug Delivery 2 2 3 This course addresses the engineering principles behind the development and understanding of controlled drug delivery systems. This course focuses on analysis of the regulation of the drug delivery process and industrial-relevant techniques used for the preparation of specific formulations. The topics range from general biological barriers to drug delivery and drug pharmacokinetics to synthetic gene delivery vectors and the use of antibodies for organ/tissue selective drug delivery. (prereq: EB-3570, EB-4510, EB-4300) EB-4910 BioMolecular Engineering Design I 3 3 4 This course is the first in a series of three courses in the biomolecular senior design sequence. Emphasis is placed on forming design teams, defining a project to meet customer needs, conducting marketing research, learning project management techniques, researching relevant literature, learning about institutional review board (IRB) processes, and maintaining an engineering logbook. Each student design team defines and plans a project, understands system life-cycles, marketing analysis, IRB procedures, intellectual property (IP) issues, and introduction of codes and standards. Project management techniques including defining the house of quality, block diagrams, the systems approach to design, incorporation of safety considerations into the design process, and completion of codes and standards are emphasized. (prereq: senior standing in biomolecular engineering) EB-4920 BioMolecular Engineering Design II 3 3 4 This course is a continuation of the biomolecular engineering design sequence. Emphasis is on definition of the product requirements, design methodologies and technologies, including block diagrams. Design teams research products and solutions to design problems, obtain project or process materials, and prepare and undergo a first design review. The progress of the design process and construction is assessed including design development and the proper use and maintenance of the engineering logbook. (prereq: EB-4910) EB-4930 BioMolecular Engineering Design III 3 3 4 This is the final course in the biomolecular engineering design sequence. Second design review takes place. Emphasis is on building and testing the design projects. Students prepare for the final design show. The final product or process, design development and the proper use and maintenance of the engineering logbook are assessed according to professional standards. (prereq: EB-4920) 271

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EE-100 Introduction to Electrical Engineering 1 2 2 This course provides an introduction to common practices and ideas of electrical engineering, including terminology, problem solving methodology, basic analytical tools, laboratory practice, working in teams and the engineering design process. EE-1910

Introduction to Embedded 3 3 4 Systems Programming In this course, the student develops a working knowledge of designing and implementing computer programs to solve problems encountered with embedded systems. Structured programming will be introduced in this course. Emphasis is placed on problem investigation, algorithm development, flowchart development, and pseudo-code development. The embedded systems model and parallel I/O are introduced. A high-level programming language is used and all programs are executed on an embedded system to illustrate and implement the topics. (prereq: MA-125) EE-201 Linear Networks: Steady-State Analysis 4 0 4 This course introduces the topics of steady-state analysis of networks using time and frequency domain methods with linear circuit models. It includes the topics mesh and nodal analysis, source transformations, network theorems, and complex power. Circuit simulation is also introduced for analysis of steady-state circuits. (prereq: MA-137 or MA-225) EE-202 Linear Networks: Transient Analysis 3 3 4 This course introduces students to transient analysis of networks using linear circuit models. System differential equations are set up and solved using both classical and Laplace techniques. In addition to analysis of circuits containing R, L and C components, and step-function and sinusoidal sources, it includes impulse function methods, transfer functions and Bode plots. SPICE is used to simulate system responses. Laboratory experiments are used to reinforce the theoretical concepts. (prereq: EE-201, MA-235) EE-2050 Linear Circuits - Steady State I 3 2 4 This course introduces the basic laws used in the analysis of electrical circuits. Specific topics covered include Kirchhoff’s Laws, resistors in series and parallel, circuit analysis methods, op amps, Thevenin/Norton equivalent circuits, and superposition. The course is limited to DC circuit analysis. Multisim is introduced as a computer analysis tool. The associated laboratory reinforces the lecture material. (prereq: MA-136) EE-2060 Linear Circuits - Steady State II 3 3 4 After a brief review of DC circuit concepts and methods, AC circuit analysis and frequency as a variable are introduced and developed. Specific topics covered include phasors, impedance, complex AC power, mutual inductance and transformers, RL and RC filters, and Bode plots. The use of the computer application Multisim is continued to include the AC analysis of circuits. The associated laboratory reinforces the lecture material. (prereq: EE-2050, MA-137) EE-2070 Linear Circuits - Transients 3 0 3 After a brief review of DC and AC circuit concepts and methods, the course introduces and develops series and parallel resonance and the transient analysis of circuits, using both classical and Laplace transform techniques. In addition, the analysis of circuits with step-function and sinusoidal sources leads to a general consideration of transfer functions. Multisim is used to simulate system responses. (prereq: EE-2060; coreq: MA-235) EE-2501 DC Circuit Analysis 4 0 4 This course introduces the non-electrical engineering student to basic DC circuit analysis. Topics include electrical quantities and definitions--voltage, current, power and energy; circuit analysis techniques using Ohm’s and Kirchhoff’s Laws, mesh currents and nodal voltages, network reduction, and Thevenin and Norton equivalents; and terminal characteristics of resistors, capacitors, inductors and operational amplifiers. (prereq: MA-128 or MA-137) EE-2502 Time-Varying Circuit Analysis 4 0 4 After a brief review of DC circuit concepts and methods, AC circuit analysis and frequency as a variable are introduced and developed. Specific topics covered include phasors, impedance, 272

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

complex AC power, mutual inductance and transformers, RL and RC filters, and Bode plots. Analysis techniques for transients in first-order systems are then introduced. (prereq: EE-2501, MA-128 or MA-137)

EE-2503 Linear Circuit Analysis 3 0 3 This course introduces the non-electrical engineering student to basic DC circuit analysis. Topics include electrical quantities and definitions--voltage, current, power and energy; circuit analysis techniques using Ohmâ€™s and Kirchhoffâ€™s Laws, mesh currents and nodal voltages, network reduction, and Thevenin and Norton equivalents; and terminal characteristics of resistors, capacitors, inductors and operational amplifiers. (prereq: MA 128 or MA-137) EE-253

Analysis and Control of 3 2 4 Electromechanical Devices This course introduces the non-electrical engineer to DC and AC motors and transformers, as well as control of these devices using programmable logic controllers and variable speed drives. Laboratory work emphasizes motors and their control. (prereq: EE-201, MA-137 or MA-225) EE-2900 Combinational Logic Circuits 3 3 4 This course is the first course of a two-course sequence to provide students with practical knowledge of digital logic systems. The first third of the course introduces students to the design and implementation of CMOS logic gates and circuits and the simulation and analysis of their static and dynamic electrical behavior. The second third of the course deals with the design, implementation, and analysis of complex combinational logic circuits. Minimization techniques, three-state devices, ALUs and basic flip-flop concepts are covered. VHDL is used for design and a Cyclone II Altera FPGA (on a Terasic DE1 board) is used for logic realization. (prereq: EE-1910, EE-2050) EE-2901 Digital Logic Circuits 3 3 4 The goal of this course is to develop the ability to analyze and design both combinational and sequential logic circuits used to construct digital systems. The first part of the course covers number systems, codes, Boolean algebra, and the analysis and design of combinational logic circuits. The second part of the course deals with the analysis and design of sequential logic circuits with an introduction of state diagram and the ASM chart. SSI, MSI and programmable logic devices are used to implement the design circuits. Commercially available software is used for CAD. Experiments, design problems and projects in lecture and laboratory sessions support material discussed in the course. (prereq: sophomore standing or consent of EE program director) EE-2902 Sequential Logic Circuits 3 3 4 This course is the second course of a two-course sequence to provide students with the practical knowledge of digital logic systems. The goal of this course is to develop the ability to analyze and design sequential logic circuits used to construct digital systems. Topics discussed include flipflops, timing and state diagrams, analysis and design of sequential circuits, and memory devices. Programmable logic devices are used to implement the design circuits. Complex circuits designed with the schematic editor and/or VHDL in conjunction with commercially available digital-design software tools will be used in the design steps. (prereq: EE-2900) EE-2905

Introduction to Embedded Systems 3 3 4 and Digital Electronics This course is intended to introduce biomedical engineering students to embedded systems, digital electronics, and programming in the C or a similar high level language. Basic microcontroller hardware architecture and subsystems are explained. The language and development environment is introduced in the context of embedded systems programming. The features and appropriate applications of various memory types are described. Data types and the use internal timers, digital input and output, and analog input and output are covered. The course includes limited coverage of practical electrical interfacing of embedded systems to external digital and analog electronics. (prereq: BE-2200 and EE-201)

273

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EE-2920 Embedded Systems 3 3 4 This course introduces students to programming and design of microprocessor-based systems. Concepts covered include microprocessor architecture, serial and parallel I/O, interrupts, interfacing of hardware components to a typical microprocessor, and microcomputer system design. The target system is used for development of both software and hardware. Each student designs at least two microcomputer subsystem interfaces entailing both hardware and software. (prereq: EE-1910, EE-2050) EE-2930 Systems Interfacing 2 3 3 In this course students develop the ability to design complex embedded systems using microprocessors. Students construct a single-board microcomputer system which is used to control a mobile robot. Components needed for this project are purchased by the student in kitform. Concepts covered include embedded systems design, sensors and actuators, interfacing of analog and digital sensors and actuators, and electro-mechanical devices. (prereq: EE-1910, EE-2050, EE-2920) EE-3031 Signals and Systems 4 0 4 This course introduces fundamental continuous time engineering signals and systems analysis. Topics discussed include signal analysis, Fourier series, Fourier transform, magnitude and phase spectra, power spectra, power signals, energy signals, Parsevalâ€™s theorem for calculation of power and energy, and signal bandwidth. Topics related to continuous time system analysis include impulse responses, convolution integrals, transfer functions, system properties, frequency response, and power calculations. Engineering applications such as signal filtering will be discussed. Matlab may be used for signal calculations and system simulation. (prereq: EE-3220) EE-3050 Dynamic Systems 3 0 3 This course introduces modeling techniques of the major types of dynamic engineering systems: mechanical translational, mechanical rotational, thermal, electromechanical, fluid, and operational amplifier systems. Appropriate methods for analytically solving system differential equations are reviewed. (prereq: EE-2070 or EE-202, PH-2010 or PH-110; coreq: MA-383) EE-3101 Operational Amplifier Design 3 3 4 This course focuses on design with operational amplifiers. Linear and non-linear amplifiers, active filters, and signal generators are covered. The concepts of stability of operational amplifier circuits are introduced. Static and dynamic limitations are covered. Great emphasis is placed on the design of different kinds of operational amplifier circuits and their applications. (prereq: EE-2070 or BE-206) EE-3111 Electronic Devices and Circuits 3 3 4 This course considers the mathematical modeling of active solid state devices and the analysis and design of single state circuits incorporating them. Small signal amplifiers are analyzed and designed and the circuits are implemented in the laboratory. Topics covered include the study of device characteristics and applications of p-n-junction diodes, bipolar junction transistors, and field effect transistors. SPICE is utilized as an engineering design tool. (prereq: EE-2070 or BE- 206) EE-3202 Electric and Magnetic Fields 3 0 3 The primary goal of this course is to develop an understanding of the physical properties of electric and magnetic fields, which is the basis for electromagnetic field applications in electrical engineering. The associated mathematical vector analysis techniques serve as the vehicle to determine, analyze, and interpret electric and magnetic fields in various coordinate systems. Topics include vector algebra and calculus in the Cartesian, cylindrical and spherical coordinate systems, Coulombâ€™s law, Gaussâ€™s law, electric potential, capacitance, and Biot-Savart law. (prereq: MA-232, PH-2020 or PH-230)

274

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EE-3210 Electromagnetic Waves 2 2 3 The primary goal of this course is to establish the foundation concepts and applications of electromagnetic waves in the context of wireless applications. The course builds on electromagnetic field principles covered in previous courses. Maxwellâ€™s equations are examined initially. Electromagnetic wave propagation is developed from a circuits viewpoint in the study of transmission lines. The Smith Chart is utilized to graphically determine and display transmission line and measurement results. Scattering parameters are introduced as the parameters used to express specifications and measurements of high-frequency components. Plane waves, antennas and propagation are examined from a communication link viewpoint. An introduction to electromagnetic interference and signal integrity issues concludes the course. High frequency measurement techniques, components, and instrumentation are examined in the laboratory sessions. (prereq: EE-3203, MA-235) EE-3212 Electromagnetic Waves 3 2 4 The primary goal of this course is to establish the foundation concepts and applications of electromagnetic waves in the context of wireless applications. The course builds on electromagnetic field principles covered in previous courses. The course begins with magnetic field topics and transitions into an introduction to time dynamic electromagnetic fields. Maxwellâ€™s equations are then examined. Electromagnetic wave propagation is initially developed from a circuits viewpoint in the study of transmission lines. The Smith Chart is utilized to graphically determine and display transmission line and measurement results. Scattering parameters are introduced as the parameters used to express specifications and measurements of high-frequency components. Transmission line concepts are then extended to electromagnetic plane waves. Antennas and propagation are examined from a communication link viewpoint. An introduction to electromagnetic interference and signal integrity issues concludes the course. High frequency measurement techniques, components, and instrumentation are examined in the laboratory sessions. (prereq: MA-235, EE-3202) EE-3220 Digital Signal Processing 3 2 4 This is an introduction to the digital processing of signals. It begins with the examination of continuous and discrete time signals and systems, and the concepts of spectrum and steady state frequency response. Discrete time signal and system interaction is examined in both the time and frequency domains, through the use of convolution and transfer function. The DSP topics include impulse sampling, reconstruction, difference equations, z-transforms, transfer function, convolution, and FIR and IIR digital filter design and application. Discrete and Fast Fourier transforms are developed and applied. Lecture topics are supported by laboratory experiments on actual DSP hardware and including Matlab. (prereq: EE-2070, EE-1910 or SE-1010 or SE-1011) EE-3401 Electromechanical Energy Conversion 3 3 4 This course provides an introduction to the basic principles of electromechanical energy conversion devices. Topics include three-phase circuits; magnetic circuits; theory, construction, and operation of transformers; performance characteristics and analysis of common rotating ac machines and their control. The concurrent laboratory work reinforces the theoretical principles involved. (prereq: EE-2060, PH-2020 or PH-230) EE-354

Digital Circuits and Microprocessor 3 2 4 Applications This course extends the electronic concepts previously introduced to nonelectrical engineers in EE-201 and EE-253. Digital devices with emphasis on their application to mechanical systems are developed. Digital concepts are used to introduce their application in microprocessors. The microprocessor applications exemplify how various chips can be utilized to control mechanical and other systems. Laboratory experiments support the theory. (prereq: CS-150, EE-253, not an EE elective)

275

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EE-3720 Control Systems 3 3 4 Students are introduced to the fundamentals of automatic control systems including analysis and design. Classical control system topics include system response and performance characteristics, stability criteria and analysis, dominant pole approximation, phase and PID compensator design. MATLAB and SIMULINK are used to aid in the analysis and design of control systems. The laboratory work introduces modern techniques needed for the design and implementation of automatic control systems. (prereq: EE-3050) EE-3921 Digital System Design 3 2 4 The objective of this course is to give students a solid foundation in 21st century digital systems design practices. The primary emphasis is on representation of digital designs as SOC (SystemOn-Chip) designs. Advanced topics like Digital Signal Processing are emphasized. The course also incorporates the use of soft processors, such as the NIOS II from Altera. Designs are specified using VHDL, simulated using ModelSim and realized on a Cyclone II FPGA from Altera (target board is the DE1 from Terasic). Real-time verification of the design using an in-system logic analyzer such as SignalTap is emphasized. The course also involves advanced projects based on a soft processor interface. Due to the project oriented nature of the course, the syllabus is organized as a set of case studies. (prereq: (EE-2900 and EE-2902) or EE-2901) EE-393 VLSI Design 3 3 4 This course introduces students to the design and fabrication of custom-made integrated circuits. The course draws on studentsâ€™ knowledge of electronic circuit theory, semiconductor device physics and digital logic design to perform the design of an integrated circuit. Topics covered include review of semiconductor physics, CMOS static combinational logic implementation, MOS transistor theory, clocked CMOS logic, device parameter and performance estimation, integrated circuit mask layout design rules and integrated circuit fabrication techniques. (prereq: EE-2901 or EE-2902 or CE-1910, EE-3111 or EE-210 or CE-3100, PH-360) EE-4021 Principles of Communications 3 2 4 In the study of communication systems, students will investigate how they operate and what affects their performance. The course relies heavily on system and signal analysis, both in the time and frequency domains, and on the statistical representation of random signals and noise. Amplitude and angle modulation systems are analyzed, including systems that transfer analog data and systems transferring digital data. Performance comparisons of commonly used digital modulation methods are presented. Signal-processing techniques that are commonly used in systems that transfer digital data are presented. Bit-error rate performance for baseband signal detection in the presence of noise is analyzed. Laboratory experiments reinforce the concepts from the lecture, with an emphasis on communication system functional modules. (prereq: MA-3620, EE-303 or EE-3031) EE-4050 Low-Noise Analog System Design 3 0 3 In this course students are given background in noise mechanisms and models as applicable to analog electronics. Topics covered included fundamental noise mechanisms, amplifier noise model, noise in feedback amplifiers, noise in BJTs and FETs, and low-noise design methodologies for amplifiers and power supplies. The noise model in SPICE is introduced and used for various designs. Different examples of low-noise designs are extensively discussed and simulated. (prereq: EE-3101) EE-4060

Introduction to Nonlinear 2 2 3 Dynamics and Chaos This course introduces the student to the basic concepts of nonlinear dynamics and chaos via numerical simulations and electric circuits. The primary goal is to understand the bifurcations and steady-state behavior of nonlinear dynamical systems. The secondary goal is to study the phenomenon of chaos using computer simulation and physical circuits. (prereq: MA-235, EE-2050 or EE-201)

276

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EE-407 Senior Design Project I 2 3 3 This is the first course in the three-course EE senior design sequence. Students form three- or four-person design teams and define a design problem which has alternative solutions. Alternatives are analyzed considering the needs and wants of a customer, safety, standards, and feasibility in the context of global, economic, environmental, and societal impacts. Topics discussed are project selection, development of a problem statement, the system diagram, formulating and executing a test plan, subsystem hardware test, team charter, and personal and team growth. Assignments relating to the above are required, and the quarter culminates in an oral design review. Students maintain a bound engineering logbook. (prereq: senior standing in electrical engineering) EE-408 Senior Design Project II 2 3 3 This is a continuation of EE Senior Design. In the first part of the course, the teams finalize their design, producing a final design report that demonstrates an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability. This is the complete â€œpaper designâ€? of their project including detailed block diagrams and schematics. Following that, the teams build all major subsystems. At the end of EE-408, they write and execute subsystem test plans and present the status of their project in an oral presentation. Each team member reports on their team roles and evaluates their team performance. (prereq: successful completion of EE-407 in Fall Quarter of same academic year) EE-409 Senior Design Project III 2 3 3 This is a continuation of the EE design project defined by each design team in EE-407 and designed in EE-408. The design is built, tested, modified, retested and completely documented in this final course of the senior design sequence. It is expected that each team will have a working prototype to demonstrate by the end of this course. Teams prepare a test plan and conduct a compliance test comparing system performance to specifications. (prereq: successful completion of EE-408 in Winter Quarter of same academic year) EE-4112 Advanced Analog Electronics 2 2 3 This course continues investigation of single and cascaded BJT and MOSFET amplifiers. In addition, midband gains, impedances, and frequency responses of multi-transistor amplifiers are studied. The effects of classic feedback configurations on amplifier characteristics are included. A significant portion of the course grade is based on the studentâ€™s performance on assigned design projects. Students are expected to use previously learned design tools such as PSPICE to explore alternatives and verify their designs. The designs are constructed and tested in the laboratory, and documented in formal design reports. (prereq: EE-3101, EE-3111) EE-421 Digital Communication Systems 3 0 3 This course covers important concepts and signaling techniques commonly used in digital communication systems. Pulse modulation methods including PAM, PWM, and PPM are studied. Digital modulation methods including ASK, FSK and PSK modulations are reviewed, and modulation techniques such as QAM are presented. Random processes are used to model noise. The effects of noise on bit-error probabilities are analyzed for various systems. Other topics covered include the matched filter, correlation and an introduction to error-correction coding. (prereq: EE-4020 or EE-4021) EE-423 Applications of Digital Signal Processing 2 2 3 This course builds upon the EE-3220 DSP lecture course. It is heavily laboratory- and applications-oriented, enabling students to implement powerful algorithms on actual DSP hardware utilizing the C programming language. Such algorithms as FIR and IIR digital filters, adaptive and multirate filters (interpolator), modulators and demodulators, correlators and discrete and fast Fourier transforms are programmed. The hardware is capable of processing stereo audio signals in real time, effectively demonstrating the power of the techniques. (prereq: EE-3220, EE-4021 or equivalent or consent of instructor)

277

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EE-424 Data Communications 3 0 3 This course provides students with the principles of data communication and networking. It extends the concepts of communication system theory, applying them to data communications situations. Topics covered include data coding, error detecting and correcting techniques, flow control, data link protocols, data formatting, spectral analysis of baseband and modulated signals, modems, interface standards, multiplexing, and computer communication network concepts. (prereq: EE-3031) EE-425 Radio Frequency Circuit Design 2 2 3 The objective of this course is to develop an understanding of fundamental radio frequency (RF) design techniques and the issues encountered in RF design. After an overview of RF systems, microstrip transmission media is covered. This is followed by the design of filters, amplifiers and oscillators in the RF region. Computer-aided engineering software is utilized in the laboratory to help realize actual RF circuit designs. (prereq: EE-3210 or EE-3212) EE-4250 Advanced Signal Processing 3 0 3 This course introduces students to advanced topics in signal processing. The course will focus on two main areas of signal processing: statistical signal processing and digital image processing. Estimation theory will be the primary focus of the statistical signal processing segment with applications such as the Kalman filter and least squares estimation. Digital image processing is a natural two-dimensional extension of digital signal processing, and techniques for image enhancement, restoration, and compression will be covered. MATLAB will be used as a simulation tool. (prereq: EE-4021 or (EE 3031 and MA-3620) or consent of instructor) EE-426 Advanced Electromagnetic Fields 3 0 3 This course is a natural continuation of the electromagnetic field and transmission line courses (EE-3202/3212) and is useful preparation for advanced and/or graduate study. Illustrative solutions of Poissonâ€™s and Laplaceâ€™s equations are obtained. Time varying fields are discussed and expressed with Maxwellâ€™s equations. Propagation and reflection of the uniform plane wave in various media are analyzed starting with the wave equation. Several special topics, such as scalar and vector potential functions, guided-wave propagation, anisotropic media, antennas and electromagnetic field simulation are considered. (prereq: EE-3210 or EE-3212) EE-429 Microwave Engineering 2 2 3 This course emphasizes microwave transmission media, especially microstrip, coax and waveguide. The theory is developed for each line in order to gain insight into transmission characteristics and operation. This is followed by a study of microwave resonant circuits, nonreciprocal ferrite devices and other microwave components. Additional insights are developed using electromagnetic field simulation and laboratory measurements. (prereq: EE-3210 or EE-3212) EE-444 Power Electronics 3 0 3 In this course students are given background in device selection and power conditioning circuits that have application at high power levels. Topics covered emphasize the use of various active devices in inverters, converters, motor drives and power conditioning circuits. (prereq: EE-3111, EE-2070) EE-447 Power System Analysis I 3 0 3 This course provides an introduction to the classical methods and modern techniques in power system analysis with the aid of a personal computer. Topics covered include the concepts of complex power, balanced three-phase circuits, transmission line parameters, transmission line performance and compensation, system modeling and per-unit analysis, circuit theory as applied to power systems and load flow analysis. (prereq: EE-3401, MA-383) EE-449 Power System Analysis II 3 0 3 This course is a continuation of EE-447, which provides students with a working knowledge of power system problems and computer techniques used to solve some of these problems. Topics covered include optimal dispatch of generation, symmetrical three-phase faults, symmetrical components, unsymmetrical faults, technical treatment of the general problem of power system stability and its relevance. (prereq: EE-447) 278

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EE-460 Quality in Electronic Systems 3 0 3 Critical to all engineers is an understanding of the meaning of quality and the impact that understanding has on how tasks, engineering and otherwise, are performed. Through the entire gamut of activities resulting in industrial products, the engineer is a key factor of every process and has the responsibility of assuring that quality is implemented in an intentional, deliberate manner. This course seeks to instill the required understanding of quality via experiential activities, demonstrate its impact, and develop the needed statistical and organizational tools and techniques for quality analysis. (prereq: MA-262 or MA-3620, senior standing in EE or consent of instructor) EE-4720 Control Systems Applications 2 3 3 This course extends the classical continuous time control techniques from EE-3720 to the areas of discrete-time systems and state-space techniques. An independent hardware project is required that demonstrates the principles of control system analysis, modeling, and design. Control systems are analyzed, modeled, and designed using frequency response, z-transform and state-space techniques. (prereq: EE-3720, EE-3220) EE-474 Programmable Controllers 2 2 3 This course provides the theory and hands-on experience necessary to enable students to design programmable controller system applications. This course highlights the systems approach as an aid to understanding modern industrial programmable controllers. Coverage begins with a review of controller basics and conventional approaches and proceeds through the concept of programmable logic including the use of microprocessors as controller elements. In addition, programming, input/output elements, peripherals, and standards and codes that govern interfacing aspects are covered. Development, design and understanding of analog input/output devices are also covered. The use of PCs as a device to program PLCs is developed. The material is reinforced by laboratory sessions that provide the opportunity to learn to develop several popular system applications. (prereq: EE-2901, EE-2902 or CE-1910) EE-481 Fuzzy Sets and Applications 3 0 3 This course introduces students to the basic concepts of modeling uncertainty in systems through the use of fuzzy sets. The underlying concepts of fuzzy sets are introduced and their role in such applications as semantic interpreters, control systems and reasoning systems is presented. Students gain firsthand experience of fuzzy sets through a class project. (prereq: senior standing in CE, EE or SE) EE-484 Neural Networks 3 0 3 This course introduces students to the basic concepts of modeling and simulating adaptive and learning systems using neural networks. The underlying concepts of neural networks are introduced, as well as a number of common topologies and learning rules used in neural networks. Students gain firsthand experience of neural networks through computer assignments and a short research project. (prereq: CS-2510, SE-1020 or equivalent, MA-343 or MA-383, EE- 2901 or EE-2902 or CE-1910) EE-487 Machine Vision 3 0 3 This course introduces the student to machine vision technology and its applications. Topics include lighting equipments and techniques, image acquisition devices/systems and techniques, and image processing techniques. Interfacing machine vision systems to other engineering systems are also discussed. Laboratory experiments and a class project include introduction to various kinds of vision systems, image processing techniques, and applications. (prereq: senior standing in EE or CE)

279

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EE-488

Introduction to Artificial Intelligence 3 0 3 and Expert Systems The objective of this course is to provide the student with an overview of topics in the field of artificial intelligence (AI). The course also provides the student with a working knowledge of designing an expert system and applying expert system technology in designing and analyzing engineering systems. The first part of the course covers historical background, knowledge acquisition and knowledge representation including propositional calculus, predicate calculus, semantic networks, frame systems and production rules. Various search techniques will be discussed. Fuzzy logic systems, neural network systems and computer vision systems will be briefly discussed in the second part of the course. Languages for AI problem solving such as Prolog and/or LISP will be introduced. The third part of this course will be devoted to the design of expert systems. Applications of expert systems in engineering system design and analysis will be stressed throughout. Case studies will be discussed. Class project is required. Students are encouraged to design expert systems for his/her own engineering applications, and an expert shell will be used to implement the design. (prereq: CS-150, SE-1010 or EE-1910 and MA-3260 or MA-262) EE-4901

Electrical Engineering 1 0 1 Cooperative Practicum 1 Students complete one summer and contiguous fall or spring quarter of approved, supervised cooperative employment. An oral presentation and written report of the work performed is required. (prereq: consent of department chair) EE-4902

Electrical Engineering Cooperative Practicum 2 1 0 1 Students complete one summer and contiguous fall or spring quarter of approved, supervised cooperative employment. An oral presentation and written report of the work performed is required. (prereq: EE-4901 and consent of department chair) EE-4903

Electrical Engineering 3 1 0 1 Cooperative Practicum Students complete one summer and contiguous fall or spring quarter of approved, supervised cooperative employment. An oral presentation and written report of the work performed is required. (prereq: EE-4902 and consent of department chair) EE-499 Independent Study 3 0 3 Students enrolled in this course are afforded the opportunity to pursue a specialized topic in their chosen field of study. After an approved area of study has been selected, weekly meetings with the course advisor are required. A final written report, the format of which is left to the discretion of the advisor, is required at the end of the term. (prereq: senior standing and consent of department chair) EE-499G Independent Study - German Students 0 0 12 Students enrolled in this course are afforded the opportunity to pursue a specialized topic in their chosen field of study. After an approved area of study has been selected, weekly meetings with the course advisor are required. A final written report, the format of which is left to the discretion of the advisor, is required at the end of the term. (prereq: for FHL students only) EE-5050 Low-noise Analog System Design 3 0 3 In this course students are given background in noise mechanisms and models as applicable to analog electronics. Topics covered include origin of noise, resistor, BJT, and FET noise models, amplifier noise, design of low-noise amplifiers and power supplies, simulation of noise in SPICE, and noise measurement systems. An individual project is required. (prereq: EE-3101, consent of instructor) EG-103 Technical Drawing and Visualization 3 2 4 The objective of this course is to acquaint Technical Communication students with threedimensional relationships and the graphical conventions utilized within the engineering community. Course topics will include seeing, visualizing and communicating through visual 280

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

forms. The investigation of shape and orientation recognition, isometric sketching, mechanical and architectural layout conventions, normal views, scales, sections, dimensioning, and chart and graph formats will be emphasized. In addition, CAD as a medium for creation, retrieving and manipulating spatial and quantitative data in visual form will be introduced.

EG-120 Engineering Graphics I 1 3 2 This course is intended to introduce the student to the history and fundamentals of the graphic language. Topics include three-dimensional visualization, orthographic and axonometric sketching, projection theories, auxiliary views, basic concepts of projective geometry (visibility, lines and planes), as well as an introduction to 3-D CAD. EG-122 Engineering Graphics and Visualization 1 3 2 This course is designed to develop within the student the skills necessary to visualize threedimensional relationships existing in the world around us and to represent, with standard graphic conventions, those relationships in a visual form. Topics include shape and orientation recognition, pictorial sketching and mechanical layout conventions including normal views, auxiliary views, sections, dimensioning and scales. In addition, projective geometry theory is presented as a basis for analysis of true size, shape, and distance. EG-123 Applied Engineering Graphics and CAD 1 3 2 The objectives of this course are to acquaint the student with the operation of a CAD system and to apply projective geometry knowledge acquired in EG-122 to spatial problems both manually and on the computer. Specific topics will include perpendicularity, clearance distance, parallelism, piercing points and intersections. (prereq: EG-122) EG-124 CAD Graphics I 2 2 3 This course is intended to introduce the student to the history and fundamentals of the graphic language. Topics include three-dimensional visualization, orthographic and axonometric sketching, projection theories, auxiliary views, basic concepts of dimensioning and CAD. EG-125 CAD Graphics II 2 2 3 This is a study of applications and various aspects of spatial projective geometry. Topics include specifications of lines and planes, parallelism, perpendicularity, connectors, rotation, intersections and CAD. (prereq: EG-124) EG-1260 Engineering Graphics - Visualization 0 2 1 The visualization course investigates both theory and application of visual images for analysis and communication of physical and conceptual ideas, concepts and products. Topics to be covered include sketching, spatial relationships, seeing, and communicating with imagery. Orthographic projection, layout, section and dimensioning standards will also be discussed. EG-1270 Engineering Graphics - CAD 0 2 1 This course provides the basic theory and application of two-dimensional AutoCAD. Topics included are drawing, editing, printing, dimensioning, text, attributes, layers, blocks and file management. EL-3020 Principles of Communications I (FHL) 4 1 0 In this course students are introduced to digital communication. The OSI reference model is introduced. Spectra of various kinds of modulation are investigated. Signal-to-noise ratio, bit error rates, multiplexing, and access methods are also covered. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 4SWS, Laboratory: 1SWS. EL-3021 Principles of Communications II (FHL) 4 1 0 This course focuses on communication networks. Local area networks, internetworking, traffic engineering, and TCP/IP are also covered. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 4SWS, Laboratory: 1SWS. (prereq: EL-3030)

281

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EL-3030 Signal Analysis (FHL) 3 1 0 This course focuses on methods used to handle various type of signals, namely the Fourier Transform, Discrete Fourier Transform, convolution, Laplace Transform, and auto correlation. Stability in the time and frequency domain, transfer function, Bode plots, and group delay are also covered. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 3+1SWS, Laboratory: 0SWS. (prereq: vordiplom for FHL students, EE-2060 for MSOE students) EL-3111 Analog Electronics II (FHL) 2 2 0 This course continues the analysis and design of small signal single- and multi-stage bipolar and FET transistor amplifiers. Topics covered include operational amplifiers, voltage regulators, oscillators, active filters, and phase locked loops. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 3SWS with integrated exercises, Laboratory: 1SWS. (prereq: EE-310, EE-3101) EL-3250 Radio Frequencies (FHL) 3 1 0 This course focuses on the analysis and design of RF systems, such as transmitters and receivers. RF-related parameters describing noise, non-linearities, and frequency response are also covered. Students gain a thorough understanding of RF laboratory equipment. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 3SWS, Laboratory: 1SWS. (prereq: vordiplom for FHL students) EL-3290 Microwaves (FHL) 3 1 0 This course emphasizes design and analysis of systems and subsystems for use in microwave communication. RF technologies, such as microstrip, waveguide, and waves in dielectrics are introduced. RF concepts such as lumped and distributed elements of various technologies are covered. Topics also include linear, reflector, and horn antennas. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 3SWS, Laboratory: 1SWS. (prereq: vordiplom for FHL students, EE-1910 for MSOE students) EL-3720 Control Systems I (FHL) 6 0 0 This course introduces the student to the basics of control systems. Modeling and analysis of dynamical systems, use of transfer functions, and frequency response are covered. Standard linear blocks, frequency response using Bode plots, and standard controllers are used to implement simple control loops. Finally, methods for control improvement and processes for identification are introduced. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 4SWS, Laboratory: 0SWS. (prereq: vordiplom for FHL students, EE-3101 for MSOE students) EL-3721 Control Systems II (FHL) 0 2 0 This course introduces Z-transform and implementation of digital control systems by converting classical PID controllers into digital algorithms. Least-square optimization methods and system identification using step response are covered. Fuzzy control is introduced. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 2SWS, Laboratory: 2SWS. (prereq: EL-3720 for MSOE students, Control Systems I for FHL students) EL-3740 Programmable Logic Controllers (FHL) 3 1 0 This course provides the necessary background to enable students to design programmable controller system applications. It provides an overview of languages offered by IEC 61131-3. System analysis, programming, input/output elements, and peripherals are covered. The use of PCs as a device to program PLCs is developed using industry standard software. The material is applied to hardware systems accessible in the PLC lab. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 2SWS, Laboratory: 2SWS. (prereq: EE-1910 for MSOE students, vordiplom for FHL students)

282

EL-3910 Computer-Aided Design (FHL) 4 2 0 In this course students develop a thorough knowledge of using software tools to simulate and analyze linear and non-linear analog circuits using DC, AC, and transient analysis. Noise

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

number and Fourier analysis are introduced. System performance analysis and goal functions are covered. This course is taken at the Lubeck University of Applied Science (FHL) in Lubeck, Germany. This is a semester course. Lecture: 2SWS, Laboratory: 2SWS. (prereq: EE-3101 for MSOE students, vordiplom for FHL students)

EN-131 Composition 3 0 3 This course assumes competence at the high school level in writing coherent, effective, well organized, and grammatically correct texts. The objective of EN-131 Composition is help students refine their strategies for communicating ideas clearly and to deepen students’ understanding of how they must adapt these strategies to fit changing rhetorical contexts and multiple audiences. EN-131H Honors Composition 3 0 3 This course is a more challenging, higher-level composition course than EN-131. Instead of reading derivative composition textbooks, students will read the original classical works by Aristotle and Cicero on which modern texts are based. In addition to reading rhetorical theory, students will also focus on a special topic as the subject matter for their own writing. Film will supplement students’ own reading in the exploration of this topic, and students will conduct their own research to produce an annotated bibliography. Students will review basic principles and techniques of effective writing and then move into a more sophisticated level of textual analysis and writing practice. The revision process is emphasized, and students will submit multiple drafts of the essays to be included in their final portfolios at the end of the quarter. Research methodology and documentation of sources will be addressed. EN-132 Technical Composition 3 0 3 The purpose of this course is to acquaint students with the principles of effective, audiencecentered technical communication and provide them with practice in writing letters, memoranda, proposals, and an informal and a formal report. The course also requires students to become familiar with accepted research techniques and to apply them in a written formal report and in an oral presentation. Students also learn the principles of graphical design and the importance of visual representation in technical communication, both oral and written, and students are expected to incorporate appropriate graphics into their written and oral communication. Finally, students are taught how to organize and present technical material orally in an effective manner. (prereq: EN-131) EN-241 Speech 2 2 3 The aim of this course is to develop effective public speaking skills, gain confidence and poise, and understand the basics of speech communication. The assignments afford practice in various public speaking situations similar to those which graduates will encounter in their careers. Typical assignments require the student to explain, describe, persuade, or discuss in a group. A banquet speech is also required. Time is taken to develop the self-awareness of the student and his/her consciousness of the reactions of his/her audience. (prereq: EN-131) EN-342 Group Discussion 3 0 3 Through this course, it is intended that the student will learn the theories, principles and dynamics of group interaction and through practice will learn the skills essential for both leading and participating in small group discussion. (prereq: EN-241) EN-432 Business Communications 3 0 3 Effective communication is key to building strong business relationships and managing highstake events. Business communication is “transactional”: its main purpose is to move business activity forward. In this course, students study and apply rhetorical principles that get results in a business environment. Topics include creating more influential web content, maximizing the potential of social media, developing crisis communication tools, proposal/grant writing, and customizing project communications to the individual needs of multiple internal and external audiences. Students will work with a non-profit organization to seek out funding opportunities and then prepare a persuasive proposal meeting the needs of both grant seeker and funding source. (prereq: EN-241) 283

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

EN-441 Professional Presentation Techniques 2 2 3 The purpose of this course is to develop effective presentation skills, to learn to incorporate graphics into presentations, to understand the basics of communication skills in professional settings, and to appreciate the role of the team in preparing a formal presentation. The assignments reflect experiences which will be encountered by graduates in their careers. Typical assignments include group presentations, presentation graphics, and presentation reviews. (prereq: EN-241, must be an AE student to enroll; coreq: AE-4311) ES-011 Reading and Writing Level I 2 2 3 The focus of this course is to have the students express themselves clearly in well-organized, five-paragraph essays. The students will write about subjective topics stemming from their personal experiences and are expected to use a process approach to their writing. They should have some understanding of appropriate word forms, fragments and run-ons, and adjective and noun clauses. While most of the grammatical and structural points can be covered within the context of the students’ compositions, some additional exercises are given to strengthen their recognition and understanding of a structure. The students will improve their reading skills by developing strategies that will enable them to identify main ideas and supporting details and to draw inferences and conclusions to understand the authors’ ideas. (prereq: TOEFL score of 173213 [computer-based], 500-550 [paper-based], or 61-78 [Internet-based] or IELTS score of 5.06.0; coreq: ES-021) ES-012 Reading and Writing Level 2 2 2 3 At this level, the student will write about objective, or academic topics using sources outside personal experiences. They will be introduced to the concept of peer reviews for their essays. The students will develop a sense of how to choose information that is relevant to their topic and will continue to improve their abilities to draw inferences. They will practice summarizing and paraphrasing techniques by working with passages from written texts. Organizing the information from the sources and showing connections between source information will be stressed. Test-taking strategies will also be addressed. (prereq: “CD” or better in ES-011; coreq: ES-022) ES-013 Reading and Writing Level 3 2 2 3 The focus of the course is to have students refine objective writing skills. They will learn to respond to an author’s writing and develop ways of finding evidence for their own points of view. The students will respond to assigned readings in their journals and in persuasive essays. The concept of plagiarism will be explained, and they will have practice making bibliographic references. Students will improve their ability to paraphrase, summarize and synthesize information in the readings. They will improve their ability to express their opinions or positions and support them with examples. (prereq: ES-012 “CD” or better in ES-012; coreq: ES-023) ES-021 Speaking and Listening Level 1 2 2 3 The focus of this course is to develop students’ self-confidence in expressing themselves orally and to gain practice in listening to academic English. The students will engage in conversations regarding real-life situations. In addition to the class work, the students will work outside the class with a conversation partner. The students will practice listening to conversations, interviews and short lectures and will be taught strategies on how to take notes while listening. The students will work on developing their discrete listening abilities, that is, paying attention to word forms (and reductions) and functions. (prereq: TOEFL score of 173-213 [computer-based], 500-550 [paper-based], or 61-78 [Internet-based] or IELTS score of 5.0-6.0; coreq: ES-011) ES-022 Speaking and Listening Level 2 2 2 3 Students will learn to work in groups; they will practice strategies in moving the discussion along, turn-taking and acting as group leader. They will practice verbalizing data and rephrasing and illustrating information. Interviewing techniques will also be practiced. The discussion topics will be academic, rather than casual conversational subjects. The students will progress to listening to recorded material that is lengthier and more complex than the material in Level 1. (prereq: “CD” or better in ES-021; coreq: ES-012) 284

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ES-023 Speaking and Listening Level 3 2 2 3 At this level, the students will improve their ability to actively lead and participate in group discussions. They will also practice speaking in front of the class by giving group and individual short presentations. They will gain experience in how to be active audience members. (prereq: “CD” or better in ES-022; coreq: ES-013) ET-1520 Electric Circuits 3 2 4 This course is an introduction to the fundamental concepts and laws of electric circuits and their application to DC and AC circuit analysis. Topics covered include Ohm’s law, Kirchhoff’s laws, capacitance, magnetism, inductance, series-parallel circuits, single- and three-phase AC circuits, transformers, and electric power. Phasors and complex numbers are utilized in AC analysis. The laboratory is used to illustrate electric circuit concepts and electric circuit measurement techniques. Note: this course is not intended for the electrical engineering technology major. (prereq: PH-123, MA-126, MA-127) ET-2001 Electric and Electronic Circuit Analysis 3 2 4 This course is a bridge course for transfer students who do not have full junior status in the +2 BS-EET program. This course prepares the student for the subsequent EET bridge courses ET2002 and ET-2003. DC and AC circuits, transistor amplifiers, and operational amplifier concepts and analysis are emphasized. Electric circuit analysis topics include Kirchhoff’s laws, phasors, impedance, series-parallel circuits, and superposition. Electronic circuit analysis topics include bias and mid-band gain analyses of bipolar transistor, field effect transistor, and operational amplifiers. The laboratory experiments are designed to illustrate the principles presented in this course. The student also uses computer simulation to predict electric and electronic circuit performance. (prereq: electric and electronic circuit analysis courses, algebra/trigonometry courses, approval of an EET curriculum advisor) ET-2002 DC/AC Circuit Analysis III 3 2 4 This course is a bridge course for transfer students who do not have full junior status in the +2 BS-EET program. Kirchhoff’s laws, phasors, impedance, series-parallel circuit analysis, and superposition are extended to more complex electric circuits. Then complex power, nodal analysis, Thevenin’s and Norton’s theorems, maximum power transfer, ideal transformers, and three-phase circuits are covered. The development of bipolar and field effect transistor amplifier bias equations concludes the course. The laboratory experiments are designed to illustrate the principles presented in this course. The student also expands the use of AC steady state computer simulation to more complex electric circuits. (prereq: MA-126, MA-127, ET-2001, or approval of an EET curriculum advisor) ET-2003 Advanced Circuit Analysis 3 2 4 This course is a bridge course for transfer students who do not have full junior status in the +2 BS-EET program. The primary concept to be introduced is frequency as a variable in the analysis of electric circuits and transistor amplifiers. Topics covered include circuit analysis with frequency as a variable, AC steady-state transfer function development, Bode plots, resonant circuit analysis and frequency response, and bipolar and field effect transistor transfer function analysis and Bode plots. The laboratory experiments illustrate the principles presented in this course. Computer simulation usage is extended to include swept frequency AC circuit analysis and transistor amplifier frequency response. (prereq: ET-2002 or approval by an EET curriculum advisor) ET-224 Electronic Communications Concepts 3 2 4 This course is a bridge course for transfer student who do not have full junior status in the +2 BS-EET program. Time-domain signal waveforms and corresponding frequency-domain signal representations for commonly encountered signals are presented. Analog and digital message signals are characterized, and A-to-D conversion is described. AM and FM signals are developed from defined modulation processes using analog messages, and then using digital data messages (the latter resulting in ASK and FSK). PSK is also presented and described. Laboratory experiments reinforce the concepts presented in the lectures. (prereq: ET-2001 digital electronics, and approval of an EET curriculum advisor) 285

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ET-2550 Electronics 2 2 3 This course is a survey of semiconductor principles, discrete semiconductor devices, linear and digital integrated circuits, and transducers. These devices are applied to the concepts and properties of electronic circuits such as power supplies, linear amplifiers, active filters, oscillators, nonlinear circuits, and interfacing. The laboratory is used to illustrate electronic devices, applications, and measurement techniques. Note: this course is not intended for the electrical engineering technology major. (prereq: ET-1520, MA-128) ET-2951 Microcontrollers I 2 2 3 This course is a bridge course for transfer students who do not have full junior status in the +2 BS-EET program. The microprocessor, microcontroller and microcontroller system are introduced in this course. In the laboratory, the student is required to design software for microcontroller applications and then download them to a microcontroller-based target system for execution. Topics covered include a review of number systems and digital system fundamentals, architecture and organization of a microprocessor and microcontroller, a programming model, the assembly language, addressing modes, an instruction set, looping, polling and handshaking techniques, stacks and stack operations, subroutines, parallel I/O, interrupts, design of interfacing circuits, memory interfacing and applications of microcontrollers. Debugger and simulation programs are also discussed. This course is the first of a two-course sequence in microcontrollers, ET-2951 and ET-2952. (prereq: digital electronics course as approved by an EET curriculum advisor) ET-2952 Microcontrollers II 2 2 3 This course is a bridge course for transfer students who do not have full junior status in the +2 BS-EET program. This course is an extension of ET-2951. The hardware and programming concepts developed in ET-2951 are reviewed. The more advanced features of the microcontroller, such as input capture, output compare, pulse accumulator, analog-to-digital conversion, the serial communications interface and the serial peripheral interface, will be examined. In addition the various sensors and actuators that will allow the microcontroller to be used in control applications are discussed along with how to interface them to the microcontroller. The lectures are reinforced by laboratory exercises in which various features of the microcontroller are utilized. (prereq: ET-2951 or approval by an EET curriculum advisor) ET-3001 Transient Circuit Analysis 3 2 4 The analysis of electric circuits in both the time domain and the Laplace transform domain is covered in this course. The circuit responses to a variety of waveforms, including step, ramp, sinusoid, switched, exponential, and impulse functions, are analyzed. Time domain differential equations and Laplace transforms are emphasized as circuit analysis techniques. The student will also learn to design circuits and experiments that will illustrate the concepts introduced in this course. (prereq: ET-3051, MA-227) ET-3051 Signals, Circuits and Systems I 3 2 4 The theory and circuit applications of periodic signals are covered in this course. The power in a circuit with multiple frequencies is investigated initially. This discussion leads to the determination of the rectangular and polar forms of the Fourier series for periodic signals and the analysis of circuits with periodic signal inputs. The spectra of periodic signals are constructed from the Fourier series. Periodic signals are analyzed in circuits, filters and systems. Applications such as signal distortion and harmonic generation are covered. Laboratory experiments will reinforce the concepts presented. (prereq: full admission into the BS EET program or consent of EET program advisor; coreq: OR-307S) ET-3060 Signals, Circuits and Systems II 4 0 4 Electronic signals and noise, especially in the frequency domain, and the corresponding system responses are examined in this course. Topics include the Fourier transform, the exponential Fourier series, and spectral densities of signals including noise. A significant portion of this course examines digital signals, sampling, A/D and D/A converters, and an introduction to digital signal processing using the Z-transform. Practical applications are discussed throughout the course. (prereq: ET-3001) 286

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ET-3100 Electronic Circuit Design 3 2 4 This course provides an introduction to electronic circuit design. The student applies fundamental electronic circuit concepts to laboratory design projects utilizing discrete semiconductor devices and analog integrated circuits. Design activity focuses on linear power supplies, switching mode power supplies, sinusoidal oscillators and active filters. Circuit simulation software is utilized as an integral part of the design process. (prereq: ET-3001) ET-3201 Electromagnetic Field Concepts 4 0 4 The fundamental concepts of electrostatics and magnetostatics are presented in this course. Vector tools are developed and used to strengthen the understanding of the physical properties of static electric and magnetic fields. Vector algebra in rectangular, cylindrical and spherical coordinate systems is initially covered. Subsequently, electrostatic and magnetostatic field topics, such as Coulombâ€™s law, Biot-Savart law, Gaussâ€™s law, and electric and magnetic flux are examined and also related to circuit concepts. (prereq: MA-226 or equivalent, full admission into the BS-EET program or permission of an EET program advisor, EG-1260) ET-351 Survey of Communication Circuits 2 2 3 Data communications is very significant in todayâ€™s world. It is used in most aspects of everyday life. Business, industry, education and homes all rely on the communication of information. This course is focused on fundamental concepts and practical applications, and prepares students to make intelligent decisions on the appropriate design, purchase, integration, and use of data communications equipment and systems. Required aspects of data communications are discussed, including relevant terminology, concepts, hardware, software, protocols, architectures, and current and future products. This course is not intended for the electrical engineering technology major. ET-3801 Real-Time Programming 3 2 4 The student develops a working knowledge of designing and implementing computer programs to solve problems encountered in engineering technology practice. Structured programming techniques and object-oriented programming techniques will be introduced in this course. Fundamental topics include program design life cycle, data types, assignment statements, I/O statements, I/O files, strings, control constructs, looping techniques, arrays, pointers, userdefined functions, library functions, and modules. Object-oriented programming topics include user-defined classes and objects, function overloading, constructors and destructors, inheritance, and polymorphism. Programming for real-time control systems and applications in engineering technology will be emphasized. Laboratory sessions will be used to enhance lecture topics. (prereq: full admission into the BS-EET program or permission of an EET program advisor) ET-3900 Design of Logic Systems 3 2 4 The design, analysis and typical applications of logic elements and systems are studied in this course. The course begins with a brief review of combinational and sequential logic circuits. A variety of representations of digital systems are covered including state diagrams, algorithmic state machine (ASM) charts, and a hardware description language. The lectures present the theory of logic design and the laboratory provides projects for the student to apply the theory. Designs will be tested using simulation and implemented using programmable logic devices (PLDs) or field programmable gate arrays (FPGAs). (prereq: full admission into the BS-EET program or permission of an EET program advisor) ET-3910 Embedded Systems 3 2 4 In this course students develop the understanding of microprocessor based systems with specific focus on an embedded system architecture, the ability to develop and implement realtime applications using interrupts, and the ability to interface external devices to the system. High level programming language will be used for programming purposes. Laboratory sessions will be used to enhance lecture topics. (prereq: full admission into the BS EET program or permission of an EET program advisor)

287

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ET-4001 Senior Project I 3 2 4 This is the first course in the two-course senior project sequence, ET-4001 and ET-4002, which is required for the BS-EET degree. Students form teams and define a technological problem. Alternative approaches are analyzed and evaluated to determine the most feasible approach. A formal project plan is required of each team, culminating in a written report and an oral presentation. Each student is required to keep a project log in a bound engineering notebook. The lecture portion of the course and some of the laboratory sessions provide background material appropriate to the senior project. (prereq: ET-4601, EN-241 or EN-333, GE-300, courses appropriate to the project area; coreq: MS-4801) ET-4002 Senior Project II 3 2 4 This course is a continuation of the senior project proposed in ET-4001. The project plan is implemented and completely documented in this final course of the senior project sequence. Each student will be involved with demonstrating the completed project, submitting a final formal written report, and delivering an oral presentation of the project. The lecture is used to provide additional pertinent information in the project areas and for presentations. (prereq: ET-4001, MS-4801) ET-4011 Senior Project I 1 0 1 This is the first course in the two-course senior project sequence, ET-4011 and ET-4012, which is required for the BS-EET degree. Students form teams and define a technological problem. Alternative approaches are analyzed and evaluated to determine the most feasible approach. A formal project plan is required of each team, culminating in a written report and an oral presentation. Each student is required to keep a project log in a bound engineering notebook. (prereq: ET-4601, EN-241, GE-300, courses appropriate to the project area; coreq: MS-4801) ET-4012 Senior Project II 3 2 4 This course is a continuation of the senior project proposed in ET-4011. The project plan is implemented and completely documented in this final course of the senior project sequence. Each student will be involved with demonstrating the completed project, submitting a final formal written report, and delivering an oral presentation of the project. The lecture is used to provide additional pertinent information in the project areas and for presentations. (prereq: ET-4011, MS-4801) ET-4021 Senior Project I 0 2 1 This is the first course in the three-course senior project sequence, ET-4021, ET-4022, and ET-4023, which is required for the BS-EET degree. Students form three- or four-person teams and define a technological problem. Detailed problem specifications are formed. Each project team develops a formal project proposal and delivers a formal presentation. Each student maintains a bounded engineering log notebook. (prereq: senior standing) ET-4022 Senior Project II 0 2 1 This is the second course in the three-course senior project sequence, ET-4021, ET-4022, and ET-4023, which is required for the BS-EET degree. Alternative solutions are generated. The solutions are analyzed and evaluated to determine the most feasible approach. A formal project plan is prepared including the identification of resource requirements, project plan, and high level block/system diagram. Feedback to the plan is provided and any necessary revisions are made. Initial project implementation is started. Each team writes a project report and delivers a progress presentation. (prereq: ET-4021; coreq: MS-4801) ET-4023 Senior Project III 2 2 3 This is the third course in the three-course senior project sequence, ET-4021, ET-4022, and ET-4023, which is required for the BS-EET degree. The project plan is implemented, tested, and completely documented in this final course of the senior project sequence. Each student will be involved with demonstrating the completed project, submitting a final formal written report, and delivering an oral presentation of the project. Some lecture time may be used to provide additional pertinent information in the project areas. Each student maintains a bound engineering log notebook. (prereq: ET-4022, MS-4801) 288

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ET-4250 Electromagnetic Field Applications 3 2 4 This course is a continuation of ET-3201 and ET-4261. Electrostatic and magnetostatic fields are extended to potentials, time-dependent electromagnetic fields, and Maxwellâ€™s equations through the concepts of Faradayâ€™s law and displacement current. Several application topics are covered in both the lecture and laboratory, including magnetic circuits, mutual indicators, antenna radiation and links, and an introduction to electromagnetic interference (EMI) and signal integrity. (prereq: ET-3060, ET-4261) ET-4261 Transmission Lines 3 2 4 The course begins with a study of step and pulse transients on a lossless transmission line to illustrate the position dependency, characteristic impedance, and reflection concepts of transmission lines. Transmission line theory and the Smith Chart are utilized for AC sinusoidal steady-state transmission line calculations. Scattering (s) parameters are introduced as high frequency two-port parameters and specifications. Various RF/microwave components are examined. In the laboratory sessions, high-frequency measurement techniques and topics are covered. (prereq: ET-3201, ET-3001) ET-4410 Power and Energy Conversion 2 2 3 This EET technical elective course provides an introduction to the principles of electromechanical energy conversion devices and systems. Topics include magnetic materials and circuits, transformers, three-phase induction machines, introduction to power electronics and electric drives, power quality considerations and alternative energy conversion systems. Presentations of these topics will be supplemented with contemporary topics in power systems and/or electro-mechanical energy conversion. (prereq: ET-3060, ET-3100) ET-4500 Electric Motors 2 2 3 The emphasis in this course is on the examination of different electric motors that are used in common industrial power systems. Students are introduced to terminology, principles of operation, characteristics, and performance curves of various types of AC and DC machines as well as their proper selection, connections and applications. Practical transformers and relays are also considered. The laboratory is used to illustrate and reinforce these electric motor topics and measurement techniques. In this course, students are provided with instruction in the common industrial power systems and the corresponding calculations. (prereq: ET-1520) ET-4601 Quality in Electronic Systems 3 0 3 Critical to all engineers is an understanding of the meaning of quality and the impact that understanding has on how tasks, engineering and otherwise, are performed. Throughout the range of activities resulting in industrial products, the engineering technologist has responsibility in every process for assuring that quality is implemented in an intentional, deliberate manner. This course emphasizes the understanding of quality via experiential activities, demonstrates the impact of quality, and develops the statistical and organizational tools and techniques for quality analysis. Students will also independently investigate qualityrelated topics and deliver oral presentations. (prereq: full admission into the BS-EET program or permission of an EET program advisor) ET-4620 Data Communications 4 0 4 The concepts needed to understand the increasingly important field of data communications and networking are presented in this course. The principles associated with data communication, transmission media, interfaces, error control, flow control, synchronization, circuit-switching and packet-switching are investigated. Ethernet as a LAN configuration is studied. The course concentrates on the physical and data link layers of communication links and networks. The student examines the various options available in networks and systems. Commonly used protocols and interface standards are emphasized. (prereq: ET-3051)

289

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ET-4630 Electronic and Wireless Communications 2 2 3 This EET technical elective course provides further background in communication systems. Presentations of the following topics will be supplemented with the presentation of contemporary topics in communication systems: analog and digital modulation methods, and signal representations in time and frequency domains (review); the effects of noise on bit-error probabilities for both baseband digital systems and systems with modulation; advanced digital modulation methods, and bandwidth/energy-efficiency comparisons with ASK, FSK, and PSK methods; multiplexing methods (TDMA, FDMA, and CDMA/spread-spectrum); overview of wireless cellular communication systems. (prereq: ET-3060, ET-4620) ET-4710 Feedback Control Systems and Circuits 3 2 4 The student is introduced to the analysis, design and applications of feedback control systems in this course. The topics include the concepts of open- and closed-loop systems, transient and steady-state responses, system speed and error performance, techniques used to determine closed-loop system stability, and design of basic controllers. Modeling and simulation of control systems will be covered using commercially available simulation languages. Typical applications of feedback control systems and circuits will be investigated in the laboratory sessions. (prereq: ET-3001) ET-4720 Digital Control Systems 2 2 3 This EET technical elective course extends the classical control techniques from ET-4710 to the areas of discrete-time control systems and state-space control. These systems are analyzed using z-transform and state-space techniques. The sampling theorem, reconstruction, frequency response, system design and digital compensators are also covered. Presentations of these topics will be supplemented with contemporary topics in control systems and/or Programmable Logic Controllers (PLCs). (prereq: ET-4710) ET-499 Independent Study 1 0 4 Independent investigation into a topic is encouraged under the direction of an MSOE faculty member. The pursuit of the independent study must conform to MSOE ET-499 guidelines. (prereq: courses appropriate to the selected topic, consent of an independent study advisor, the EET program director, and the department chairman) FP-2701 Basic Fluid Power 3 0 3 This course considers fluid power, its advantages and limitations, the prevailing industrial standards, and ANSI/ISO graphic symbols used for circuit representation. Various types of loads are studied and related to the required hydraulic performance. Positive displacement pumps, motors, and actuators are described and steady state sizing relationships are developed relating pressure and flow rate. Also valves for pressure, directional, and flow control are studied individually and as employed in specific hydraulic circuits. Finally, the subject of overall circuit design is treated. Hydrostatic transmissions, cavitation, accumulators, pump controls for energy conservation, hydraulic fluids and filtration are also covered. (prereq: PH-113) FP-4701 Advanced Fluid Power 3 2 4 Advanced concepts in fluid properties, linearized models for valve, pump, and motors are applied to the steady state modeling of fluid power systems and components. Pump control strategies (pressure compensation, load sensing, torque limiting, power limiting, etc.) are discussed relative to system performance goals. Dynamic analysis of hydraulic components and systems is accomplished using computer based methods (e.g., Matlab/Simulink). Laboratory work support lecture material. (prereq: FP-2701, MT-3101) GE-1001 Principles of Engineering 2 2 3 This course provides an overview of engineering and engineering technology. Students develop problem-solving skills by tackling real-world engineering problems. Through theory and practical hands-on experiences, students address the emerging social and political consequences of technological change. Enrollment in this course is restricted to students in the Project Lead The Way (PLTW) program.

290

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

GE-1002 Introduction to Engineering Design 2 2 3 This course emphasizes the development of a design. Students use computer software to produce, analyze and evaluate models of projects solutions. They study the design concepts of form and function, then use state-of-the-art technology to translate conceptual design into reproducible products. Enrollment in this course is restricted to students in the Project Lead The Way (PLTW) program. GE-1003 Digital Electronics 2 2 3 This course introduces students to applied digital logic, a key element of careers in engineering and engineering technology. This course explores the smart circuits found in watches, calculators, video games and computers. Students use industry-standard computer software in testing and analyzing digital circuitry. They design circuits to solve problems, export their designs to a printed circuit auto-routing program that generates printed circuit boards, and use appropriate components to build their designs. Students use athematics and science in solving real-world engineering problems. This course covers several topics, including: Analog and digital fundamentals Number systems and binary addition Logic gates and functions Boolean algebra and circuit design Decoders, multiplexers and de-multiplexers. Enrollment in this course is restricted to students in the Project Lead The Way (PLTW) program. GE-1004 Computer Integrated Manufacturing 2 2 3 This course teaches the fundamentals of computerized manufacturing technology. It builds on the solid-modeling skills developed in the Introduction to Engineering Design course. Students use 3-D computer software to solve design problems. They assess their solutions through mass propriety analysis (the relationship of design, function and materials), modify their designs, and use prototyping equipment to produce 3-D models. The course includes these integrated concepts: Computer Modeling: Students use 3-D software for mass property analysis; Computer Numerical Control (CNC) Equipment: Students develop an understanding of the operating procedures and programming capabilities of machine tools; Computer-aided Manufacturing (CAM): Students convert computer-generated geometry into a program to direct the operation of CNC machine tools; Robotics: Students program robots to handle materials in assembly-line operations. Flexible manufacturing Systems: Teams of students design manufacturing work cells and tabletop factories to solve complex problems that arise in integrated multiple pieces of computer-controlled equipment. Enrollment in this course is restricted to students in the Project Lead The Way (PLTW) program. GE-1006 Civil Engineering and Architecture 2 2 3 This course explores the fields of civil engineering and architecture, their similarities and differences. It touches such concepts as project development, site selection and analysis, utilities, and landscaping. In architecture such subjects as style, space utilization, building systems, and structural engineering are covered. Enrollment in this course is restricted to students in the Project Lead The Way (PLTW) program. GE-1007 Aerospace Engineering 2 2 3 This course uses hands-on engineering projects and problems to teach students about aerodynamics, astronautics, space life sciences, and systems engineering. Topics covered include history of flight, aerodynamics, airfoil construction, wind tunnel testing, glider design and construction, GPS and spatial awareness, measuring rocket engine thrust, rocket trajectory, orbital mechanics, life support and environmental systems, effects of gravity on the human body, thermal protection systems, and intelligent vehicles. Enrollment in this course is restricted to students in the Project Lead The Way (PLTW) program. GE-1008 BioTechnical Engineering 2 2 3 This course employs relevant projects from biotechnology, bioengineering, biomedical engineering, and biomolecular engineering to teach students to apply and develop secondarylevel knowledge and skills in biology, physics, technology and mathematics. Topics covered include the history of biotechnical engineering, the biotechnical engineering industry, ethics, individual values, impact of technology on living systems, forensic science, bioreactors and bioprocessors, aquaponics, biomedical engineering, orthopedics, cardiovascular devices and imaging. Enrollment in this course is restricted to students in the Project Lead The Way (PLTW) program.

291

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

GE-2006 Engineering Dynamics 3 0 3 This subject deals with the motions of particles and rigid bodies and the forces causing them. Topics include rectilinear and curvilinear motion, rotation and plane motion. Principles include Newtonâ€™s Laws, work and energy, conservation of energy, and impulse and momentum. (prereq: ME-255, MA-226) GE-205 Professional Growth 1 0 0 This series of courses (GE-205, GE-305, GE-405) is directed towards the overall growth of the student. The AE and CM B.S. student is required to attain 20 hours of combined professional and community outreach from sophomore through senior year. (prereq: sophomore standing) GE-300 Career and Professional Guidance 0 2 1 This course is designed to provide career guidance to electrical engineering and electrical engineering technology students who are completing their junior year. The course serves to prepare students for professional issues arising during the senior year and for entry into a professional career following graduation. Guest speakers from several major areas of electronic and electrical technology help provide insight into industrial careers. The instructors also advise students on selecting their senior technical electives. Students also learn about graduate school opportunities and the mechanics for applying to graduate school. Ethical issues and professional responsibilities are discussed. Part of the course is devoted to developing and discussing team concepts, and the advantages and pitfalls of team engineering efforts. Placement office personnel discuss how to prepare a good resume, placement office procedures, interviewing skills and use of the Internet to find employment opportunities. Students prepare a resume, do research on a company in which they are interested and submit their resume with an appropriate cover letter seeking employment. Finally, the process of professional engineering registration is presented. (prereq: EE students: junior standing or participation in exchange program, EET students: ET-3051) GE-305 Professional Growth 1 0 0 This series of courses (GE-205, GE-305, GE-405) is directed towards the overall growth of the student. The AE and CM B.S. student is required to attain 20 hours of combined professional and community outreach from sophomore through senior year. (prereq: junior standing) GE-3101 Fluid Mechanics 2 2 3 This is a course that examines the basic characteristics of fluids. Fundamental fluid properties (density, viscosity) are examined. Fluid statics focuses on the concept of fluid pressure and its variation. Fluid dynamics establishes the fluid flow energy equation, and examines the concept of losses. Applications to turbomachinery are presented. Laboratory experiments support the concepts introduced in the lecture. (prereq: MA-128, PH-113) GE-3301

Instrumentation and Control 2 2 3 of Engineered Systems This is a course in the use of systems modeling techniques in engineering design. Electrical/mechanical/fluid/thermal analogies will be described. Measurement and data acquisition techniques will be introduced. (prereq: EE-201, ME-256 or GE-2006, ME-354, GE-3901) GE-3601 Solid Modeling and Design I 2 2 3 This course introduces the student to the parametric solid modeling software, Pro/ENGINEER. The purpose is to teach the student all the basic modeling skills for creating parts, assemblies and detailed drawings. In addition to the features learned to create solid models and production quality drawings, students learn to use the analysis area of the software to obtain: mass properties, draft check to verify if parts have enough draft to be released from an injection mold, clearance/interference check of assembled parts. (prereq: EG-124 or equivalent)

292

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

GE-3602 Solid Modeling and Design II 2 2 3 This course teaches advanced part modeling features such as sweeps, blends, surfacing and family tables, within the parametric solid modeling software, Pro/ENGINEER. Students model sheet metal parts such that a view is created of the unbended part to determine the stock size needed to manufacture it. Mechanisms are modeled with animated movements, while collecting position, velocity and acceleration data. (prereq: GE-3601 or consent of instructor) GE-3650 Engineering Systems Design 4 0 4 This course is an introduction to the methods and practices of engineering design. Topics include: the design process, describing and developing design objectives, managing the design process, engineering specifications, engineering problem-solving, presentation of design solutions, and the concepts of DFX. A team design project will be undertaken. (prereq: ME-321, IE-423, GE-3602, junior standing) GE-3651 Computer-aided Engineering Design 2 2 3 This is a course in the applications of computing tools to the engineering design. Simulation tools and techniques for virtual prototyping and design optimization will be introduced. A team design project will be undertaken using these modern simulation tools. (prereq: GE-3650 or consent of instructor) GE-3901 Computer Tools 2 2 3 This course introduces basic concepts of computer programming using MATLAB software. Topics include plotting, root finding, matrix operations, functions, and loops and logical branching. Also included are advanced features of EXCEL spreadsheets. GE-405 Professional Growth 1 0 0 This series of courses (GE-205, GE-305, GE-405) is directed towards the overall growth of the student. The AE and CM B.S. student is required to attain 20 hours of combined professional and community outreach from sophomore through senior year. (prereq: senior standing) GE-4901 Capstone Design I 3 0 3 This is the first course in the three-course Capstone Design sequence in the bachelor of science in engineering program. Working in teams, students will carry out an integrated design/realization project. (prereq: GE-3651, IE-340, senior standing) GE-4902 Capstone Design II 3 0 3 This is the second course in the three-course Capstone Design sequence in the bachelor of science in engineering program. (prereq: GE-4901) GE-4903 Capstone Design III 3 0 3 This is the third course in the three-course Capstone Design sequence in the bachelor of science in engineering program. (prereq: GE-4902) GS-1010H GS Honors Seminar I 4 0 4 Students will explore the “city as text,” learning to “read” the city. Readings from humanities disciplines about the concept of “the city” are included, and film will be used as a supplement to students’ reading. Students will write papers in response to their reading and service-learning experience; the final paper will be persuasive and include research from primary and secondary sources. (prereq: enrollment in the University Scholars Program) GS-1020H GS Honors Seminar II 4 0 4 Students study the way a city functions and how people live and work together within a city. Students will research current issues in the city and select a topical area to study for the quarter. They will study raw data regarding what makes a city healthy (environmental data, safety data, etc.) related to the issues they have selected. Working in teams, they will organize public events/public hearings on selected issues, invite speakers, schedule a location, notify the media, etc. Students will write short reports related to their project topics and will write a formal proposal that a certain action be taken to solve a problem related to the selected issue. (prereq: enrollment in the University Scholars Program) 293

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

GS-1030H GS Honors Seminar III 4 0 4 Students study architectural aesthetics and physical/temporal characteristics of the city. They will study art works, including music and theater, to discern patterns in the ways cities are represented in art. They will study architecture and analyze the relationships between form and function. In addition, students may study public art, its role in city life, and the discourse surrounding it. Field trips to study the aesthetics of public spaces will be included. Throughout the quarter, students will create and deliver short presentations regarding their reading and research. At the quarterâ€™s end a poster session event, planned by students and open to the public, will present student work discussing the relationships between a cityâ€™s ethos and its aesthetics. Students will also design presentation slides and posters that are both aesthetically appealing and rhetorically effective. (prereq: enrollment in the University Scholars Program) HU-100 Contemporary Issues in the Humanities 3 0 3 This course introduces students to selected contemporary issues in the humanities. At the same time, this course introduces students to approaches for interpreting and synthesizing the contexts surrounding these issues and for making personal connections between the issues and their own personal experiences, beliefs, and values. Students will be acquainted with contemporary issues through a variety of media, including film, slides, readings, and participation in a fine arts experience. HU-332 Bioethics 3 0 3 Students cannot get credit for both HU-332 and HU-432. Bioethics is a broad interdisciplinary field encompassing consideration of the ethical significance of the practice and results of the biological sciences as well as the ethics of practice of the various health care professions. This course emphasizes ethical issues arising in health care delivery and its institutions. Topics include the nature of professional ethics; truth telling, informed consent and confidentiality; children, well-being and competence; decision-making with respect to the end of life; the ethics of reproductive technologies; and justice and access to health care. The polarity of the values of autonomy and community is a recurring theme of the course. (prereq: must be a BE or nursing student to enroll in HU-332, junior standing) HU-406G German Literature 3 0 3 This course focuses on the original works of major authors of German literature throughout history, including Goethe, Schiller, the Grimm Brothers, Kafka, Mann, Hesse, and Heine, among others. Texts will be read in the original German. (prereq: HU-414G, must obtain permission from instructor or department chairperson) HU-410CH Chinese I 2 2 3 This is a beginning course in Mandarin Chinese (the national standard language of the Peopleâ€™s Republic of China and the Republic of China (Taiwan)). Students will be introduced to the basic grammar of the language as well as vocabulary useful in daily conversations. By developing elementary skills in speaking, listening to, reading and writing Mandarin Chinese, students will acquire the ability to communicate in everyday situations. (prereq: must obtain permission from department chairperson)

294

HU-410F French I 2 2 3 The objective of this course is to provide students with a basic knowledge of the French language. The course will teach all four aspects of the learning of a foreign language: reading, writing, speaking and understanding. Particular emphasis will be laid from the very beginning on correct pronunciation. The course will start with a brief historic presentation of the origins of the French language and continue with the alphabet and spelling. Major effort will go into having the students understand the phonetic value of the French vowels. Each one-hour session will include reading of the vocabulary, a brief grammatical chapter, exercises and review of the material. Students will do in class all the previously assigned homework as well as new exercises from the textbook. Each week, about 15 minutes will cover one topical aspect of French culture and civilization, such as geography, basic history, social customs, and political and economic problems such as government, work conditions, immigration, and religion. Homework will be assigned every time and checked the next day. The tape that comes with the textbook will be available in the library. (prereq: must obtain permission from department chairperson)

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

HU-410G German I 2 2 3 This course teaches the basics of the German language: grammar, vocabulary, and pronunciation. Elements of German culture are also covered through reading material. Grades are determined by class participation, homework exercises, quizzes, and a comprehensive final exam. (prereq: must obtain permission from instructor or department chairperson) HU-410I Italian I 2 2 3 The basics of the Italian language, including grammar, vocabulary, and pronunciation are covered. Elements of Italian culture are also explored. Class participation is an important part of the course. (prereq: must obtain permission from department chairperson) HU-410J Japanese I 2 2 3 This course teaches the basics of the Japanese language: grammar, vocabulary, and pronunciation. Elements of Japanese culture are also covered through reading material. Class participation is an important part of the course. (prereq: must obtain permission from department chairperson) HU-410S Spanish I 2 2 3 This course aims at providing the student with an understanding of the basic sounds, morphology, and to a smaller extent, customs and sometimes the civilization of the language. Through exercises and dictation, the student will be exposed to the reading, understanding, and writing of the language. The intention is to perform all these activities concurrently. A large part of the time will be devoted to class exercises. (prereq: must obtain permission from department chairperson) HU-411CH Chinese II 0 0 3 This course is a continuation of HU-410CH, Chinese I. (prereq: HU-410CH or two years of high school Chinese, must obtain permission from department chairperson.) HU-411F French II 2 2 3 This is a continuation of the introductory course of the French language and culture. This second quarter will continue to provide the students with the three major elements of the course: expansion of grammar and its applications to written and spoken language. The students will learn new tenses, interrogative and negative forms of past tenses, irregular verbs; agreement between passe compose and the direct object, expansion of the vocabulary with many incursions into transportation, travel, food, hospital and time telling, expansion of the cultural background with references to the school and college system, military system, immigration and religion. In addition, the students will do exercises every day. (prereq: HU410F or two years of high school French, must obtain permission from department chairperson) HU-411G German II 2 2 3 This course is a continuation of HU-410G German I. (prereq: HU-410G or two years of high school German, must obtain permission from instructor or department chairperson) HU-411I Italian II 2 2 3 This course is a continuation of HU-410I Italian I. (prereq: HU-410I or two years of high school Italian, must obtain permission from department chairperson) HU-411J Japanese II 2 2 3 This course is a continuation of HU-410J. During the Japanese II course, students further develop the four skills of listening, speaking, reading and writing. Also, to a smaller extent, students are exposed to Japanese culture, examining the connections between the language and the beliefs and values of that culture. A large part of the time will be devoted to class exercises. (prereq: HU-410J or two years of high school Japanese, Must obtain permission from instructor or department chairperson) HU-411S Spanish II 2 2 3 This course is a continuation of HU-410S Spanish I. (prereq: HU-410S or two years of high school Spanish, must obtain permission from department chairperson) 295

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

HU-412CH Chinese III 3 0 3 This course is a continuation of HU-411CH, Chinese II. (prereq: HU-411CH or three years of high school Chinese, must obtain permission from department chairperson) HU-412F French III 2 2 3 This course, a continuation of French II, will provide the students with the remaining major grammar aspects of the language. These aspects include reflexive verbs, irregular verbs, the imperfect, subjunctive, conditional and future tenses, as well as possessive and demonstrative pronouns. In terms of vocabulary, the students will have a chance to read short excerpts from French newspapers and magazines. The spoken aspect of the language will be enhanced by television news programs from Paris and more of the course being conducted in French. The cultural aspects will be complemented by videos and film, and short incursions into art and literature. (prereq: HU-411F or three years of high school French, must obtain permission from department chairperson) HU-412G German III 2 2 3 This course is a continuation of HU-411G German II. (prereq: HU-411G or three years of high school German, must obtain permission from instructor or department chairperson) HU-412I Italian III 2 2 3 This course is a continuation of HU-411I Italian II. (prereq: HU-411I or three years of high school Italian, must obtain permission from department chairperson) HU-412J Japanese III 2 2 3 This course is a continuation of HU-411J Japanese II. During the Japanese III course, students will achieve communicative competence of the Japanese language in four skills: listening, speaking, reading and writing. A large part of the time will be devoted to class exercises. (prereq: HU-411J or three years of high school Japanese, must obtain permission from department chairperson) HU-412S Spanish III 2 2 3 This course is a continuation of HU-411S Spanish II. (prereq: HU-411S or three years of high school Spanish, must obtain permission from department chairperson) HU-413G German IV 3 0 3 This conversation and composition course is taught primarily in German. Grammar is reviewed as needed. Vocabulary review and expansion is addressed through the reading material. Course grades are determined by short quizzes, weekly writing assignments, class participation, and a midterm and final exam. (prereq: HU-412G or four years of high school German, must obtain permission from instructor or department chairperson) HU-413S Spanish IV 3 0 3 This course is a continuation of HU-412S Spanish III. (prereq: HU-412S or four years of high school Spanish, must obtain permission from department chairperson) HU-414G German V 3 0 This course is a continuation of HU-413G German IV. (prereq: HU-413G, must obtain permission from instructor or department chairperson)

HU-414S Spanish V 3 0 3 This course is a continuation of HU-413S Spanish IV. (prereq: HU-413S or four years of high school Spanish, must obtain permission from department chairperson) HU-420 Classical Derivatives 3 0 3 This course aims to help the student better appreciate the classical heritage of the English language. It is a comprehensive study of the basic Greek and Latin word elements - roots, prefixes, and suffixes - that underlie modern English usage. The purpose of the course is to provide the student with a systematic method for increasing his/her vocabulary. Exercises will illustrate practical application.

296

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

HU-4200 Linguistics: Scientific Study of Language 3 0 3 This course introduces students to fundamental topics in the study of language. In addition, this course explores several interdisciplinary areas of linguistic research (e.g., the origins of language, language and the brain, language acquisition, language and gender, language and writing, language in society, and language and electronic communication). Students are expected to think about possible implications and application of the course material to their college studies, personal lives, and future careers. The course assumes no prior knowledge in linguistics. The only requirement for the course is that students have an interest in language and are open to a wide range of ideas on the subject. HU-421 Literary Genres 3 0 3 The purpose of the course is to acquaint students with the conventions of the novel, short story, poetry, and drama and to provide them with the tools they need in order to interpret, evaluate, and appreciate quality literature. By providing students with a richly diverse menu of selections, which balance the classic with the contemporary, it is hoped that they will develop a habit of reading quality literature because it holds their interest, helps them reflect on and understand the human condition better, and affords them much pleasure. The course focuses on class discussions involving the analysis and interpretation of many selections in each genre, but also considers, at times, historical, political, and social forces which may impact on a writerâ€™s vision. It also considers major approaches to literary criticism. HU-422 British Literature 3 0 3 This course acquaints students with a significant range of British literature beginning with the Middle Ages and continuing through the 21st century. Students learn of the social, historical, political, religious, and economic factors which influenced writers of each period. The course covers poetry, essays, short stories, drama, and a novel. HU-423 American Literature 3 0 3 The objective of this course is to acquaint students with representative selections from the main periods in American literature, beginning with the Native-American oral traditions (precolonization) and continuing through the 21st century. The various movements in American literature are explained and discussed, as are the various social, political, religious, historical, and economic conditions which helped to produce them. Students read the works of a variety of different writers in each period, and they read essays, poetry, and short stories as well as a novel and a play. It is hoped that, as a result of their reading, students will come to appreciate how American literature has evolved to its present status as a world-class literature. HU-424 Science Fiction 3 0 3 The goal of this course is to, through various theoretical approaches, teach students the necessary analytical skills required to read below the surface of a text. By learning to semiotically read cyberpunk texts the students will be able to apply their knowledge to any form of literature. Using short fiction alongside novels and some cyber-text (i.e. fan fiction), we can see how the different forms inform one another and also analyze each formâ€™s shortcomings and strengths with regard to the subject matter. HU-425 Contemporary Literature 3 0 3 This course focuses on the best of literature published within the past few years in order to enhance studentsâ€™ understanding and appreciation of modern literary forms, as well as to explore important human concerns in contemporary life. Readings may be drawn from contemporary poetry, novels, plays, short stories, and essays. Films may also be used to give students visual reference to what has been studied. HU-426 Survey of Third World Literature 3 0 3 This course acquaints students with a variety of modern works by authors from Third World countries. As a result, students learn about the literature as well as the social, philosophical, and religious themes which concern writers in developing nations. Films may be used to give the students visual reference to what has been studied.

297

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

HU-427 Classics in Eastern Literature 3 0 3 This course acquaints students with classic literature of China, India, Japan, Korea and the Middle East. Students will read and learn about some of the literary masterpieces of the Eastern world. Films may be used to give students visual reference to what has been studied. HU-428 Classics in Western Literature 3 0 3 This course examines the development of major periods in literature, starting with the first writings that evolved out of the ancient oral tradition and continuing into the Renaissance. The course concentrates on well-known writings that represent the early social and literary evolution of the Mediterranean Basin and Western civilization. The course will be divided into three major divisions: Ancient literature (Gilgamesh, Homer, Sophocles, Euripides, Aristophanes, Plato, Virgil, etc.), Middle Ages literature (Beowulf, Dante, Chaucer, etc.), and Renaissance literature (Petrarch, Erasmus, Machiavelli, Cervantes, Shakespeare, Milton, etc.). In addition to the reading done as a group, students are required to conduct an individual research project. The individual projects will demonstrate a thorough investigation (secondary research and personal insight) of a specific piece of pre-Renaissance literature (preferably something not discussed as a class). HU-429 Literature of American Minorities 3 0 3 This course acquaints students with a broad range of literature by American writers from minority ethnic backgrounds, from colonial American poetry to contemporary poetry, novels, plays, short stories, and essays. The works read are placed into historical and cultural perspectives, and film may also be used to give students visual references to what has been studied. HU-430 Epistemology 3 0 3 Epistemology, also known as the theory of knowledge, together with metaphysics, constitutes the traditional core of philosophy. What is knowledge, and how does it differ from mere belief? How do I know that I know anything? Is certainty even a reasonable objective? Among the topics within epistemology’s ambit are the challenge of skepticism, the justification of belief, belief in an external world, the nature of perceptual knowledge, memory, the justification for belief in other minds, the difference between “knowledge that” and “knowledge how,” theories of truth, and the ethics of belief. Both historical and contemporary texts will be used. HU-4300 Philosophy of Education 3 0 3 As sustained reflection on the nature and aims of education, the philosophy of education has traditionally been part of the preparation of teachers. Its broader significance has risen with increased recognition of the bearing of questions of education on multiple domains of social concern. The course will consider questions of more general interest than those encountered in the professional education of teachers. Topics include: the relation of education to schooling, the tension between preparation for work and preparation for citizenship, the boundaries of educational authority, educational access, and grading and testing. Special topics may include issues peculiar to higher education and instructional and communication technology. HU-431A Formal Logic 3 0 3 Logic is the theory of argument. Formal logic is principally the study of symbolic systems by which arguments are expressed, and is fundamental to such disciplines as computer science, artificial intelligence, linguistics, and mathematics. The course begins with an examination of the concepts of argument, validity, and soundness. The relation of the notions of semantics and syntax is stressed as elements of formal systems for sentential and quantificational deduction are introduced. Activities emphasize acquiring skill in the translation of English expressions into symbolic notation, and proof construction.

298

HU-431B Informal Logic 3 0 3 The study of logic emphasizes critical analysis, clarity of language, formulation and evaluation of arguments, and the recognition of fallacies or mistakes in reasoning. The first part of the course covers the relationship between philosophy and logic, the history of logic, and recognizing and evaluating arguments. The second part of the course covers the recognition of fallacies, the role and importance of language, and reasoning used in the news media, science, and other areas of contemporary concern.

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

HU-432

Ethics for Professional Managers 3 0 3 and Engineers This course examines and evaluates the meaning of ethics and professional conduct. A guiding theme is the human search or quest for values and ethical direction in terms of professional and/or personal conduct and our daily life relationships with others. We will articulate and evaluate our own ethical principles and values and their foundations. (prereq: junior standing) HU-433 Philosophy 3 0 3 This course introduces the nature of philosophical enterprise in both an historical and thematic way. The Socratic idea of the value of the examined life and its role in our search for better understanding of who we are and what genuinely matters is a guiding theme in the course. Some topics discussed are the nature of human beings, knowledge, free choice, friendship/love, questions of meaning and value of life, and the human search for sense of belonging and home in the world. As these topics are discussed, we will develop our own philosophical positions regarding these questions. HU-434 Existentialism 3 0 3 Existentialism may be viewed more as a collection of diverse philosophical attitudes toward life and the human condition than a specific school of philosophical thought. In this course, students will study and critically evaluate the positions of selected writers and philosophers that are often called “existentialist”. Some topics that will be explored are questions of meaning and value in life, freedom and responsibility, issues of an “authentic existence” and similar existential themes in literature, drama, and philosophy. Students will be encouraged to explore their own personal and philosophical positions on the questions and issues. HU-435 Philosophy of Religion 3 0 3 The objectives of this course are to explore and reflect upon the human search for meaning, purpose, and value in life. The first part of the course covers the nature of philosophy and religion, various views concerning the origin of religion, world religions, arguments and questions concerning the existence of God. The second part of the course covers the problem of evil and suffering, death and immortality, and issues connected with the nature of faith and the search for ultimate meaning. HU-436 Metaphysics 3 0 3 Metaphysics is the philosophical study of basic problems of existence. It considers such issues as why there is something rather than nothing, what kinds of things exist, and how they are related. Metaphysical thought attempts to clarify the use of concepts of existence, identity, property, external world, universal and particular, mind and body and causality, among others. The course emphasizes topics of particular importance to an understanding of what we are and what we do. Topics to be considered include time, the mind/body problem, personal identity and freedom, and determinism. Both historical and contemporary sources will be used. HU-437 Praxiology 3 0 3 Praxiology is the normative study of effective action. The course takes a philosophical perspective on the field and aims at an increased understanding of concepts used in reflection upon our practical interaction with the world. Description of action is stressed, and the transparency of habitual action is considered as the main methodological obstacle. Topics considered include the central importance of the hand, G. H. Mead’s theory of action, the Alexander Technique, and the Lakoff-Johnson theory of metaphor. HU-4370 Political and Social Philosophy 3 0 3 Social and political philosophy most broadly addresses the relation between the individual and the state. It comprises two general areas of inquiry: the nature and legitimacy of various forms of social arrangement, and particular moral issues of a broadly social character. Representative issues of the second sort include privacy, property, punishment, family, and compulsory education.

299

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

HU-438 Aesthetics 3 0 3 Aesthetics is often identified with its major component, the philosophy of art. And while beauty is the aesthetic property most often associated with thinking in aesthetics, our experience of awe, humor, horror and disgust are also of considerable interest. The course begins with an examination of the notion of aesthetic experience in its relation to nature and art. Other topics include: imagination and creation; aesthetic evaluation and criticism; copies, forgeries and imitations; objects and performances; the presentation of art to the public; and aesthetics, morality and censorship. HU-439 Philosophy of Technology 3 0 3 This course will examine the nature, history, and impact of modern technology upon ourselves, our lives, and the world we share with other living beings both human and non-human. We will study and evaluate various views towards technology and from this basis develop their own philosophical and ethical positions regarding the impact, purpose, and direction for technology. One of the aims here is to question, explore, and evaluate much of what we may take for granted about modern technology. HU-440 Global History I (The World to 1500) 3 0 3 This course aims to analyze the essential characteristics and experiences of the major world regions and to consider those forces that had a worldwide impact. Topics to be considered: the ancient, classical, and medieval civilizations of Eurasia; the Confucian, Muslim and nonEuropean worlds on the eve of Europe’s expansion; and the roots of European expansion. HU-441 Global History II (The World Since 1500) 3 0 3 This course provides an overview of global history from the year 1500 to the present. The major civilizations in Europe, Asia, Africa, and the Americas are examined as are the interactions between these civilizations over the last five centuries. The course aims to analyze the essential characteristics and experiences of the major world regions and to consider those forces that had a worldwide impact. Topics to be considered include European expansion; European domination of the globe; the non-Western world’s reaction against Europe’s hegemony; and the development of liberalism, nationalism, and other Western ideologies and their manifestations. Global History I is not a prerequisite. HU-442 Modern European History 3 0 3 This course covers the political, economic, and social history of Europe since the Congress of Vienna, 1815. It deals with the history of Europe and European civilization as a unit, and in the twentieth and twenty-first centuries it attempts to tell the story of an integrated, or at least interconnected, world. Emphasis falls on those situations and movements--nationalism, socialism, liberalism, imperialism and militarism—that are international in scope and that have confronted and occupied Europeans and their descendants in common. HU-443 Russian History 3 0 3 This course will introduce the student to Russia through both a geographic and an ethnic analysis of the country. The course will cover the 1917 Revolution and its causes, the establishment of the Communist dictatorship, the formation of Russia, the Stalinist years, and the aftermath of Stalin. The last part of the course will deal with Russian foreign policy and international Communism, with particular emphasis on the Sino-Soviet conflict and its implications. HU-445 United States History I 3 0 3 This course presents a synopsis of American history from the period of the earliest English settlement up through the United States Civil War. The course examines significant political, social, and constitutional events that have shaped our national heritage during this period. The principal focus of the course is upon the development of sectional communities and the conflicts between those sections that ultimately led to the Civil War. HU-446 United States History II 3 0 3 The course presents a synopsis of American history from the period of Reconstruction following the United States Civil War to the present. The course examines significant political, social, and 300

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

constitutional events that have shaped our national heritage during this period. The principal focus of the course is upon the growth of the federal government and federal power in both the domestic and international spheres.

HU-447 History of the Middle East 3 0 3 This course provides a general survey of the history of the Middle East from ancient times to the present with an emphasis on the period after 1700. The course examines the various cultures of the Middle East and how those cultures have interacted. Of particular importance will be the rise of Islam, the effect of western influence upon the Middle East after 1700, and the ArabIsraeli conflict of the twentieth century. HU-448 World War II 3 0 3 This course provides a general survey of the history of the causes, course, and consequences of World War II. The course focuses upon the diplomatic, political, and military facets of the war and those ideological forces that gave rise to the war. Topics that will be covered include the final diplomatic settlement of World War I, the rise of communism and fascism in Europe, the march to war in Europe and Asia, the European and Pacific Theaters of Operation, the Holocaust, and the origins of the Cold War. HU-449 German History 3 0 3 This course provides a survey of German history from classical times through the present day. The course will focus upon the growth of Germany, particularly its establishment as a nationstate and the role that it played in European history from 1870 to the present. The course will also examine the political, social, economic, and foreign policy trends that have shaped Germany and its people. Finally, the course will examine the historiographical trends that have emerged from the study of German history. HU-4495 Latin American History 3 0 3 This course aims to provide an honest historical assessment of a region of the world often marked by misunderstanding, unrest, and violence. While close attention will be paid to Guatemala, this class will also take into account countries like El Salvador, Nicaragua, Panama, Mexico, Venezuela, and Cuba - and the relationship between such nations and the United States. HU-485 Fine Arts 3 0 3 This course studies the fine arts including: visual arts, music, theater and dance through classroom and actual experience. Attendance at concerts, a play, and visits to art galleries will be an essential part of the course. Slides, films and recordings in the classroom will support these pursuits. The emphasis will be on how to enjoy aspects of each with an overview of the creative process. Analytical written reports will be required. HU-486 Theater Arts 3 0 3 Enjoyment of theater is increased by experiencing it, by understanding the range of its forms and its history. The elements of theater, both live and filmed, are studied. Acting techniques are practiced in class. Current community offerings determine viewing assignments as well as the arrangement of instructional material. Backstage tours of local theaters are featured. HU-487 Visual Arts 3 0 3 This course studies the visual arts through history from the primitive to the present. Emphasis is placed on definition, context, purpose and personal significance. The design is for the non-art student and displays the effects of art on the everyday life of all people. HU-488 Music History and Appreciation 3 0 3 This course will give the student an opportunity to deepen their understanding of “what makes music great,” and to appreciate those elements that combine to cause music to uniquely touch human beings. Adult professionals in the field trained at our university must have social and cultural sophistication in their lives in order to fit readily into the corporate or medical world. This class is designed to make you a better professional by teaching you a “non-musicians” appreciation for the beauty and complexity of music and by introducing you to some of the remarkable musical eras that have produced the modern musical world. 301

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

HU-489 Film Studies 3 0 3 The purpose of this course is to introduce students to the technique and principles of film as an artistic medium. Topics include basic elements of film studies (narrative, mise-en-scene, composition and image, sound); film production (film structure, role of director, role of producer, cinematography, acting, editing); film genres, and approaches to film criticism. A history of film includes thematic, visual, sound, and technical milestones, and places that history within the context of culture and society. HU-494 Creative Thinking 3 0 3 The subject seeks a deeper understanding of the creative process by examining the nature of creativity and various competing and complimentary theories which seek to explain the nature of creativity and its origins. The course provides instruction beyond the scientific method and traditional problem solving, aiming for greater fluency in generating ideas, increased sensitivity to problems, greater intellectual flexibility, and the gaining of a broader range of new insights through an enhanced “openness to experience.” HU-495 Humanities Selected Studies 3 0 3 This course covers timely topics in the humanities or specialized subjects that reflect the expertise/interest of current General Studies Department faculty. This class is limited to 15 students. (prereq: permission from course instructor) HU-49514 Philosophical Inter-Subjectivity 3 0 3 In this course, we will examine the nature and meaning of friendship and love, and their possible connections to building a sense of home in the world. Various writers will be studied and students will be expected to explore and develop their own philosophical and personal views. IE-100

Introduction to Industrial 2 2 3 Engineering Profession This course is an introduction to the field of industrial engineering. The course introduces the student to a number of career paths in industry such as management engineering, quality, logistics, process improvement manager, etc., using guest speakers and tours to provide firsthand experience. This course will also introduce students to the common terminology used in Industrial Engineering as well as examine current trends in industrial engineering. IE-193

Computer Applications in 2 2 3 Industrial Engineering This course provides basic familiarization, instruction, and competence with common computer applications used in the field of Industrial Engineering. The purpose of the course is to provide a student with expertise in using computational tools. These tools will be used in multiple subsequent courses and throughout the student’s career. The course will provide instruction in the use of these tools and laboratory time to practice their use while deepening understanding and expertise. IE-203

Applications of Statistics in 2 2 3 Industrial Engineering This course emphasizes the importance and relevance of statistics in the field of Industrial Engineering. The purpose of the course is to further the student’s understanding of the applications of statistics in engineering. The course will concentrate on data collection, analysis and inference using statistical methods. The course will provide instruction in the use of these tools and laboratory time to practice their use while deepening understanding and expertise. (prereq: MA-262) IE-2450 Work Planning and Methods Development 2 2 3 This course introduces students to the principles and techniques associated with work planning, methods analysis, and job design, including time studies, predetermined time systems, work sampling, and standards development. (prereq: MA-262)

302

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

IE-312 Research Methods 3 0 3 An introduction to scientific research methods for students interested in academic research, research and development, or analyzing and evaluating open-ended problems in business and industry. Topics covered will include planning a research study, gathering data, analyzing data, and presenting results, as well as development of interviews and surveys, reliability and validity, and quantitative and qualitative measurement methods. (prereq: junior standing in an engineering program) IE-331 Production Planning and Inventory Control 3 0 3 Many businesses, including those in manufacturing, retail, and logistics, rely on Enterprise Resource Planning (ERP) systems for production control. This course provides a comprehensive review of the material planning and production control modules within an ERP system. Topics include forecasting, operations planning, master scheduling, and inventory control. It introduces students to the ERP software from SAP and compares traditional MRP approaches to newer approaches such as kanban and drum-buffer-rope. (prereq: MA-262, junior standing) IE-336 Contemporary Manufacturing Systems 2 2 3 Contemporary manufacturing is viewed as an integrated system designed for maximum flexibility and rapid responsiveness. This course presents topics related to the design and analysis of manufacturing systems, including system improvement initiatives such as Lean and Quick Response Manufacturing. Laboratory exercises are included to enable students to practice techniques and analyze how various changes impact overall manufacturing system effectiveness. (prereq: junior standing) IE-340 Project Management 3 0 3 This course will enable the student to gain an understanding of the mechanics of guiding a project from the initiation phase through project implementation and, finally, termination. Topics such as project planning, budgeting, scheduling, evaluation and resource allocation are discussed as well as the individual roles of the project manager and team members. (prereq: MA-262 or equivalent) IE-347 Facilities Design 3 2 4 This course covers facility layout planning methods, as well as the inter-relationships between physical layouts (of facilities, departments, or work cells), process flows, and material handling systems. Students learn techniques for generating and evaluating facility layout solutions and are introduced to analysis methods and decision factors for selecting a facility location. (prereq: junior standing, AE-1311) IE-348 Quality Assurance (SPC) 3 0 3 Improved quality has been identified as one of the most critical issues facing business today, essential to assuring competitiveness in a global economy. While emphasis is placed upon the techniques of statistical process control and acceptance sampling, the course also details other graphical tools of quality analysis, explicitly connecting quality to productivity and costs. The course is intended to present quality concepts, tools and techniques in sufficient breadth so as to be applicable to both manufacturing and the service sector. (prereq: MA-262, IE-203) IE-3620 Ergonomics 2 2 3 This course introduces students to the capabilities and limitations of humans and how that relates to product and job design. Includes physical and cognitive aspects of work, as well as micro- and macro- ergonomics concerns. (Students enrolling in this class may not enroll in SS-464.) (prereq: junior standing, MA-262) IE-3621 Ergonomics 3 2 4 This course introduces students to the capabilities and limitations of humans and how that relates to product and job design. Includes physical and cognitive aspects of work, as well as micro- and macro- ergonomics concerns. (Students enrolling in this class may not enroll in SS-464). (prereq: junior standing)

303

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

IE-377 Safety in Engineering 3 0 3 This course is designed to prepare the student for a leadership role in management to proactively and aggressively apply basic principles of safety in order to protect the occupational health of the workforce and the general public while improving the companyâ€™s bottom line. (prereq: junior standing) IE-3770 Computer Integrated Manufacturing 3 2 4 This course deals with factors and principles related to automation systems for manufacturing. It compares manual and automated systems for production processes, material handling, storage systems, inspection, and product identification. It includes hands-on lab instruction in topics such as robotic programming, flexible manufacturing systems, and using a coordinate measuring machine (CMM). (prereq: IE-426 or ME-323) IE-381 Deterministic Modeling and Optimization 3 0 3 Modeling requires building a logical or mathematical representation of a system and using the model to assist the decision making process. This course examines modeling techniques for systems in which the variables influencing performance are deterministic (non-random). These techniques include linear programming, transportation and assignment algorithms, inventory models and network analysis. Case studies and computer algorithms are utilized. (prereq: MA-127, junior standing or consent of instructor) IE-382 Stochastic Processes 3 0 3 This course continues the modeling approach to problem solving by presenting techniques used to analyze and design systems affected by random variables. Queuing theory, Markov processes, and decision theory are examined. Case studies and computer algorithms are utilized. (prereq: MA-262, junior standing or consent of instructor) IE-383 Simulation 3 2 4 Focusing on discrete-event systems, this course incorporates spreadsheets, simulation languages, and simulation software to analyze, design, and improve production and service systems. The simulation process and statistical analysis of input and output are addressed. A strong emphasis is placed on decision making and design. (prereq: IE-382, IE-192 or IE-193) IE-390 Industrial Engineering Junior Project 0 2 1 This course, entirely projects based, is intended to serve as an opportunity for third-year students to apply subjects they have learned thus far to a real-world engineering problem which requires some choices as to the specific engineering tools that will be used. Students work in teams of typically three members on a client-based project from business/industry. This course is intended to serve as a precursor to the Capstone Engineering Design project courses (IE 49014903) scheduled in the senior year. (prereq: two of the following: IE-362 or IE-3620 or IE-3621, IE-348, or IE-381; coreq: IE-423) IE-391 Industrial Engineering Junior Project 2 2 3 This course is intended to serve as an opportunity for third-year students to apply subjects they have learned thus far to a real-world engineering problem. These problems are sponsored by business/industry and require some choices as to the specific engineering tools that will be used. Following tool selection, data gathering, model building, and analysis, the students are required to reach a recommended solution. Students work in teams under the supervision of a faculty member. Two lectures per week are provided to lead the students through this problemsolving process. This course is intended to serve as a precursor to the Capstone Engineering Design project courses (IE-4901 and IE-4902) scheduled in the senior year. (prereq: two of the following: IE-362 or IE-3620 or IE-3621, IE-348, or IE-381; coreq: IE-423) IE-423

Engineering Economy

This subject is intended to provide the fundamental techniques for quantifying engineering and business decisions, especially those in which the time value of money is significant. It deals with cost, value, and work concepts and emphasizes the applications of funds invested in capital assets and facilities and the returns on such investments. (prereq: junior standing) 304

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

IE-426 Materials and Manufacturing Processes 3 2 4 The properties of materials and transformation of materials into fabricated components and finished goods are the focus of this course. Manufacturing processes studied include bulk deformation, sheet metal processes, plastics processes, metal casting, welding, and others. The course emphasizes the relative advantages and disadvantages of various processing techniques, including economic considerations. (prereq: ME-207 or ME-257) IE-4260 Design for Manufacture and Assembly 2 2 3 Product design has become increasingly challenging with shorter design/development cycles and the need to address numerous competing concerns, including usability, maintainability, reliability, disposability, and more. This course covers design guidelines and analytical techniques that can be utilized to improve product designs with the primary goal of simplifying manufacturing and assembly processes, thus making the production operations more costeffective across the product’s life cycle. (prereq: IE-426 or ME-323) IE-431 Six Sigma Methods 3 0 3 Six Sigma incorporates statistical tools and a continuous improvement philosophy to provide a powerful methodology for eliminating waste, improving processes and ultimately, increasing the financial performance of an organization. This course introduces the student to the basic Six Sigma methodology including the statistical techniques necessary to implement and complete a Six Sigma project. Students will be expected to complete a project and to complete the Six Sigma greenbelt exam. (prereq: junior standing, MA-262) IE-4332 Lean 3 0 3 Lean techniques can be used to improve any business process and make companies globally competitive. During this course students will learn to identify what is value-added and what is waste in any business process and to eliminate identified waste. Students will also learn the value of teamwork in a Lean Enterprise and will be introduced to the concepts of 5S, Value Stream Mapping and Kaizen. (prereq: junior standing) IE-440 Team Leadership/Facilitation 2 2 3 This course examines the role of the Industrial Engineer as a team leader and facilitator. Identification of personal strengths and weaknesses with respect to leadership will be addressed. The students will develop skill through leadership and facilitation opportunities as presented in class and during class projects. (prereq: junior standing) IE-449 Quality Management 3 0 3 This course addresses the strategic role of quality in business and industry. It focuses on management’s role in achieving quality excellence, the structures and systems needed to support a total quality strategy, and the main statistical and analytical tools for achieving quality improvement and control. The focus of this course is global and includes applications and examples ranging from high-tech companies to service industries such as health care, insurance, and distribution. (prereq: IE-348) IE-460 Design for Quality 3 0 3 This course covers the basic approaches to statistically designed experiments including hypothesis testing by the use of ANOVA, Analysis of Means, Student t, F, Chi-square and Z tests, and decision making by use of statistics, factorial and Taguchi methods. (prereq: MA-262) IE-4621 Sociotechnical Systems 3 0 3 Socio-technical Systems (STS) is a method that might be used to analyze manufacturing and service jobs, as well as entire organizations through the study of classical theories and techniques of management and organizational behavior (i.e., Frederick Taylor’s Scientific Management, Elton Mayo’s Human Relations, etc.), as well as more recent developments related to quality of working life, change management, and the macro-ergonomic analysis and design process. This course includes analysis of both social and technical systems within an organization in an effort to improve the design and functionality of the entire system. (prereq: junior standing) 305

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

IE-4622 Organization and Job Design 3 0 3 Organizations are becoming increasingly more complex with regards to how business is accomplished when considering issues of cultural and emotional intelligence of employees, the impact of globalization as well as quality of working life issues. This course assists in the design, implementation and diffusion of productive organizations and an individualâ€™s role within the organization. (prereq: junior standing) IE-470 Topics in Industrial Engineering 3 0 3 This course considers subject matter in several of the newer, emerging areas of industrial engineering and management theory and practice. Thus, the content changes regularly. (prereq: junior standing and instructor consent) IE-4771 Automation I 2 2 3 This course gives an overview of modern automation tools, with emphasis on CNC programming, CNC machining, and rapid prototyping. It covers the principles of CNC machine tools (milling and turning), as well as programming them manually and with the use of CAD/CAM. (prereq: IE-426 or ME-323 or consent of instructor, AE-1311 or ME-1601 or consent of instructor.) IE-4773

Computer Aided Manufacturing/ 2 2 3 CNC Machining/Rapid Prototyping This course teaches students the fundamentals of computer aided manufacturing (CAM), computer numerical control (CNC) machining, and rapid prototyping (RP). Students will learn how to program a CNC machine using manual G/M code programming and computer aided manufacturing software. The course also provides an overview of rapid prototyping (freeform fabrication) technologies, and students will compare part production via RP and CNC. (prereq: IE-426 or ME-323 or consent of instructor, AE-1311 or ME-1601 or consent of instructor) IE-483 Advanced Simulation Modeling 3 0 3 This course continues the material presented in IE-383 (simulation) and focuses on statistical concerns. Emphasis is placed on the analysis of the statistical nature of simulation. Probability distributions are examined for appropriateness and data fit. Run length is determined for appropriateness and confidence intervals are used to describe the output. (prereq: IE-383) IE-4901

Industrial Engineering Senior 2 2 3 Design Project I This is the first of a two- (three-) course sequence in developing and executing a team capstone design project in Industrial Engineering. The purpose of this project is to demonstrate the studentsâ€™ ability, working within a design team, to integrate the knowledge, skills, and experiences acquired in the Industrial Engineering program. Evaluation of user (client) needs, development of an engineering specification, appropriate evaluation criteria, and techniques for design in the presence of conflicting design constraints (quality, productivity, safety, cost) are reviewed. This course includes an external client-sponsored design project and a design proposal submitted to, and approved by, the client. Interdisciplinary teams are encouraged. (prereq: senior standing, EN-241, EN-132, consent of instructor) IE-4902

Industrial Engineering Senior 1 3 3 Design Project II In this second of the senior design courses, the student teams execute the design proposal developed in IE-4901. The design is documented in a written team report and orally defended before a faculty review panel. Typically, the project is also presented to the client in a separate presentation, often at the client facility. (prereq: IE-4901) IE-4903

306

Industrial Engineering Senior 1 3 3 Design Project III This course provides a mechanism for a design team, with approval received during IE-4901 from the course coordinator and faculty advisor, to undertake a larger scope project with correspondingly longer planned duration. The final project presentation and written report is then scheduled at the end of IE-4903, with IE-4902 including a status report. If IE-4903 is approved, no grade for IE-4902 will be issued until IE-4903 is completed. This course satisfies the requirements of an Industrial Engineering elective. (prereq: IE-4902, consent of instructor)

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

IE-499 Independent Study 1 0 3 This course allows the student, with faculty guidance, to concentrate on an approved subject of special interest not covered in regularly scheduled courses. This may take the form of individual or small group supervised study, literature review, analysis, design or laboratory study. (prereq: senior standing, approval of faculty advisor and program director) MA-120 Precalculus Mathematics 4 0 4 This course provides a review of the aspects of algebra, trigonometry, and analytic geometry that are necessary for success in calculus for the benefit of students with slight deficiencies in any of these areas. It is not intended as a substitute for a rigorous course in any of these topics. (prereq: MA-127 or equivalent) MA-125 College Algebra I 4 0 4 This course provides a review of basic algebra. Topics covered include: fundamental algebraic operations; equations, ratio and proportion, variation; systems of linear equations; factoring and fractions; quadratic equations. MA-126 Trigonometry 4 0 4 Topics include trigonometric functions, special angles, solution of triangles, radian measure, graphs, inverse trigonometric functions, solution of trigonometric equations, basic identities and the sum, difference, double angle and half angle formulas. An introduction to exponents and logarithms is included. (prereq: MA-125 or equivalent) MA-127 College Algebra II 4 0 4 This course provides a review or introduction to more advanced algebra. Topics covered include: exponents and radicals; solving linear, quadratic and selected radical and polynomial equations; an introduction to analytic geometry; the function concept and terminology; determinants, matrices and systems of linear equations; the binomial theorem. (prereq: MA-125 or equivalent) MA-128 Analytic Geometry and Calculus I 4 0 4 This subject is an introduction to differential and integral calculus with analytic geometry. The following topics are covered: techniques of curve sketching, conic sections and the general second degree equation, the derivatives of algebraic functions and use of derivatives in curve sketching, applied maxima and minima, related rates, the integrals of algebraic functions, and definite integrals and areas. (prereq: MA-127 or equivalent) MA-129 Business Calculus 4 0 4 This course covers functions, the derivative with applications, techniques of differentiation, the exponential and logarithmic functions with applications, and an introduction to the definite integral. (prereq: MA-127 or equivalent) MA-136 Calculus for Engineers I 4 0 4 This course begins with a short review of topics in algebra and trigonometry before introducing the student to differential calculus. Topics include algebra of functions, limits, continuity, differentiation of algebraic, trigonometric, exponential and logarithmic functions and application of the derivative to curve sketching and optimization problems. (prereq: MA-120 or equivalent) MA-137 Calculus for Engineers II 4 0 4 This course is a continuation of MA-136 and an introduction to integral calculus. Topics include Newtonâ€™s method, differentials, basic integration of algebraic, trigonometric, exponential, logarithmic and inverse trig functions. Topics also include rectilinear motion, areas and volumes of revolution, different integration techniques and numerical integration methods. (prereq: MA-136)

307

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MA-1410H Honors Calculus I 5 0 5 The key concepts on which single-variable calculus is based - limits, continuity, differentiation and integration - are presented in a more thorough and rigorous fashion, giving the student who already has some intuitive familiarity with these concepts and facility in their implementation a deeper understanding and a more solid foundation for future work in calculus. Elementary techniques of logic are presented to help the student understand and construct proofs of the basic theorems. One hour a week is devoted to informal discussion, student presentation and review. (prereq: AP calculus credit for MA-136 and AP calculus credit for MA-137) MA-1420H Honors Calculus II 5 0 5 A continuation of MA-1410, covering improper integrals, arc length, physics applications, parametric forms and polar coordinates, vectors and the geometry of three-space, functions of several variables and partial derivatives, and an introduction to differential equations. One hour a week is devoted to informal discussion and student presentation. (prereq: MA-1410) MA-1430H Honors Calculus III 4 0 4 A continuation of MA-1420, covering double and triple integrals with applications, cylindrical and spherical coordinates, and infinite sequences and series. (prereq: MA-1420) MA-225 Calculus II 4 0 4 This subject is a continuation of MA-128. The topics covered include numerical integration, volumes of revolution, moments of inertia, work and fluid pressure, differentiation and integration of transcendental functions, L’Hopital’s rule, special integration techniques, parametric equations, and arc length. (prereq: MA-126, MA-128) MA-226 Calculus III 4 0 4 This subject is a continuation of MA-225. The topics covered include polar coordinates, curves and areas in polar coordinates, surfaces in three dimensions, partial derivatives, and multiple integrals. Also included are infinite series, tests for convergence, Taylor and Maclaurin series, operations with series, and an introduction to Fourier series. (prereq: MA-225) MA-227 Differential Equations for Technologists 3 0 3 This subject is an introduction to applied differential equations. The topics covered include the solution of first-order differential equations, the solution of higher-order linear equations with constant coefficients, and the solution of linear equations by Laplace transforms. (prereq: MA-225) MA-230 Discrete Mathematics 4 0 4 This course provides an introduction to several topics fundamental to computer science. Topics discussed will include set algebra, logic, relations and functions, recursion, combinatorics, graph theory, Boolean algebra, methods of proof, and finite state machines. (prereq: MA-127 or equivalent, sophomore standing) MA-231 Calculus for Engineers III 4 0 4 This course is a continuation of MA-137 and an introduction to multivariable calculus. Topics include L’Hopital’s rule, improper integrals, applications of integrals to physics, parametric equations, polar coordinates, vector algebra and surfaces in three dimensions, and partial derivatives with applications. (prereq: MA-137) MA-2310 Discrete Mathematics I 3 0 3 This course provides an introduction to discrete mathematics as it applies to computer science. Topics include sets, logic, relations, functions, recursion, Boolean algebra, and graph theory. (prereq: MA-127 or equivalent, sophomore standing) MA-232 Calculus for Engineers IV 3 0 3 This course is a continuation of MA-231 and an introduction to multiple integration and infinite series. Topics include double and triple integrals with applications to areas, volumes and moments, infinite series with tests for convergence, power series, Taylor and Maclaurin series, and operations with series. (prereq: MA-231)

308

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MA-235 Differential Equations for Engineers 4 0 4 This course discusses the solution of first-order differential equations, the solution of higherorder differential equations with constant coefficients, applications of differential equations, and an introduction to the method of Laplace transforms applied to the solution of certain differential equations. (prereq: MA-231) MA-2440H Honors Differential Equations 4 0 4 Covers homogeneous and non-homogeneous differential equations, initial-value models, Laplace Transforms, linear systems of differential equations, and an introduction to boundary value problems. (prereq: MA-1420H or MA-231) MA-262 Probability and Statistics 3 0 3 This course provides a basic introduction to the laws of probability needed to perform statistical analyses. Both descriptive and inferential statistics are considered. Probability distributions, the Central Limit Theorem, confidence intervals, hypothesis testing, and analysis of variance are considered in depth. (prereq: MA-137 or MA-225) MA-315 Nursing Statistics 3 0 3 This course considers both visual and calculational aspects of statistics. The major portion of the course deals with the analysis of data, including medical data. Calculational topics include the estimation of population parameters, tests of hypotheses, and tests for goodness of fit. NOTE: this course is open only to students in the School of Nursing. (prereq: MA-125 or equivalent) MA-330 Vector Analysis 3 0 3 This subject provides a brief study of vector algebra and vector calculus, including velocity and acceleration, space curves, gradient, divergence and curl using the del operator, line, surface and volume integrals, conservative fields, curvilinear coordinates, Greenâ€™s theorem, the divergence theorem, and Stokesâ€™ theorem. (prereq: MA-232 or MA-226) MA-3320 Discrete Mathematics II 3 0 3 This course continues the introduction of discrete mathematics begun in MA-2310. Emphasis is placed on concepts applied within the field of computer science. Topics include logic and proofs, number theory, counting, computational complexity, computability, and discrete probability. (prereq: MA-2310, MA-262) MA-340 Business Statistics 4 0 4 Almost all managerial decisions involve some amount of uncertainty. This course is designed to acquaint the student with some of the statistical methods that can be used to help make these decisions. Topics covered are probability, probability models, estimation, tests of hypotheses, analysis of variance, and regression. Note: This course is open only to students in the School of Business. (prereq: MA-127 or equivalent) MA-343 Matrix Methods and Linear Programming 3 0 3 This course is an introduction to matrix methods and linear programming, including matrix algebra, matrix inversion, simultaneous linear equations, linear programming including the simplex method, duality, and the transportation problem. (prereq: MA-231) MA-3501 Engineering Mathematics I 4 0 4 This and the following course cover post-calculus topics of interest to and importance for engineers. The emphasis in this course is on differential equations. Covered are: first and second order differential equations, the Laplace transform, series solutions, numerical approximations to solutions. Note: this course is only open to students in the bachelor of science in engineering program. (prereq: MA-226 or equivalent) MA-3502 Engineering Mathematics II 4 0 4 A continuation of MA-3501. This course emphasizes linear algebra. Covered are: vectors and vector spaces; matrices, determinants and systems of linear equations; eigenvalues and diagonalization. Note: this course is only open to students in the bachelor of science in engineering program. (prereq: MA-3501) 309

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MA-3610 Biostatistics 4 0 4 This course provides an introduction to biostatistics and design of experiments for biomedical engineering students. As a result of this course, the students are expected to understand and prepare statistical analyses to data from physiological systems in the laboratory and clinical environment. Students learn basic probability theory that includes discrete and continuous probability distributions. They learn how to apply that theory to hypothesis testing and understand the difference between a z-test and t-test, and one- and two-sample inference hypothesis testing. Additionally, concepts associated with measurement validity and reliability, hypothesis formulation and testing, and the experimental and statistical control of error. Particular emphasis is given to the appropriate selection and use of parametric statistical tests including t-tests, analysis of variance, repeated-measures designs, and simple and multiple regression. Statistical software tools are used throughout the course. Note: This course is open only to students in the biomedical engineering program. (prereq: MA-136; coreq: MA-137) MA-3620 Random Variables and Statistics 3 0 3 This course introduces elementary probability theory, which includes basic probability concepts such as conditional probability, independent events, multiplication rule, law of total probability and Bayesâ€™ theorem; theory of random variables, both discrete and continuous, single and multiple. This course also introduces elementary inferential statistics, including hypothesis testing . (prereq: MA-232) MA-3710 Mathematical Biology 3 0 3 This course is an overview of several techniques used in the development and analysis of mathematical models that illustrate various biological processes. The topics covered involve applications of ordinary and partial differential equations, dynamical systems and statistical analysis. Applications include population models, infectious disease and epidemic models, genetics, tumor growth and DNA sequencing. (prereq: MA-235) MA-380 Advanced Differential Equations 3 0 3 This course presents the student with more powerful methods of solving differential equations. Topics include matrix methods for solution of systems of linear differential equations, openform solutions of linear differential equations with variable coefficients using infinite series (including the method of Frobenius), and additional Laplace transform methods. (prereq: MA-235, MA-232) MA-381 Complex Variables 3 0 3 This course is an introduction to the theory of analytic functions of a complex variable. Topics covered include algebra of complex numbers, mapping by elementary functions, analytic functions, complex integrals, Cauchyâ€™s Theorem, power series, Laurent series, residues and poles. (prereq: MA-232, MA-235) MA-382 Laplace and Fourier Transforms 3 0 3 This course introduces the theoretical concepts and uses of the Laplace and Fourier transforms. It includes Laplace transform of special functions, properties, operations and using Laplace transforms to solve ordinary and partial differential equations. It also includes Fourier series, Fourier Integral representation and Fourier transform of special functions, properties, operations and using them in partial differential equations. (prereq: MA-232, MA-235) MA-383 Linear Algebra 3 0 3 Topics include the use of elementary row operations to solve systems of linear equations, linear dependence, linear transformations, matrix operations, inverse of a matrix, determinants, subspaces, null spaces, column spaces, dimension and rank, eigenvalues and eigenvectors, diagonalization of matrices, similarity, inner product and orthogonality, orthogonal projections and Gram-Schmidt process. (prereq: MA-231)

310

MA-384 Statistical Methods for Use in Research 3 0 3 This course is an introduction to the techniques and methods used in research and seen in published research papers. It assumes a knowledge of the statistical methods generally encountered in an introductory, calculus-based statistics course. Methods such as multiple and nonlinear regression, sequential models regression, two-way analysis of variance, contingency tables, and nonparametric statistical methods from the basis of this course. (prereq: MA-262)

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MA-385 Modern Algebra with Applications 3 0 3 This course is an introduction to abstract algebra with a focus on elementary group theory and some of its applications. Topics include: modular arithmetic, groups, subgroups, isomorphism, external direct products, rings, integral domains and fields. Applications include: error checking/correction and the RSA encryption algorithm. (prereq: MA-235 or equivalent, junior standing) MA-386 Functions of a Real Variable 3 0 3 This course looks at the foundations of calculus with more rigor, using the concepts of sequences and limits to understand continuity, differentiation and integration in greater depth than is possible in the calculus sequence. (prereq: MA-232) MA-387 Partial Differential Equations 3 0 3 This course provides a smooth transition from a course in elementary ordinary differential equations to more advanced topics in a first course in partial differential equations, with heavier emphasis on Fourier series and boundary value problems. Topics covered includes separation of variables, classification of second order equations and canonical form, Fourier series, the one-dimensional and two-dimensional wave equation and heat equation, Laplace’s equation. It also covers some applications, such as vibrating string, vibrating membrane, vibration of beams, heat conduction in bars and rectangular regions, etc. (prereq: MA-235, MA-232) MA-388 Introduction to Number Theory 3 0 3 Number theory is primarily concerned with the properties of the integers. While the subject has long been thought of as quintessentially "pure" mathematics, recent developments in fields such as cryptography have renewed interest in it. Topics include: mathematical induction; divisibility and primes; the Euclidean algorithm; linear Diophantine equations; modular arithmetic; primality testing; continued fractions. (prereq: MA-231) ME-1000 Mechanical Engineering Freshman Seminar 1 0 1 This course is intended to provide the student with an overview of the mechanical engineering profession. Lecture topics include an overview of the engineering profession, career paths within mechanical engineering, and the relationship of the educational curriculum to the personal and professional growth of the student. ME-1001 Mechanical Engineering Freshman Seminar 1 0 0 This course is intended to provide the student with an overview of the mechanical engineering profession. Lecture topics include an overview of the engineering profession, career paths within mechanical engineering, and the relationship of the educational curriculum to the personal and professional growth of the student. ME-1601 Introduction to Engineering Design 2 2 3 This course is intended to introduce the student to Computer Aided Design (CAD) and the formal engineering design process. Topics focus on the engineering design process, solid modeling tools, and the application of solid modeling in mechanical engineering design. The course includes a team design project. ME-190 Computer Applications in Engineering I 2 2 3 The purpose of this course is to familiarize students with the modern computer tools required for engineering practice, and teach them how to apply these tools to solve practical engineering problems. Topics include problem formulation, model development, algorithm development, and the use of numerical methods and computer graphics in the solution of engineering problems. Laboratory exercises will involve the use of various numerical and graphical software packages. (prereq: MA-127 or equivalent) ME-191 Computer Applications in Engineering II 1 2 2 The purpose of this course is to apply the model and algorithm development methods from ME190 to hands-on “hardware-in-the-loop” applications. Applications in data acquisition, robotics and mechatronics will be emphasized. (prereq: ME-190)

311

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ME-205 Engineering Statics 4 0 4 This is a study of force systems acting on bodies that are not in motion. The course includes analysis of forces in trusses, frames and machine components; additional topics include friction, location of centroids, and evaluation of area and mass moments of inertia. (prereq: MA-137, high school physics) ME-206 Engineering Dynamics 4 0 4 This is the study of motion and the forces which affect the motion. This course includes the study of rectilinear motion, curvilinear motion, plane motion, dynamic force analysis, work and energy, and impulse and momentum. (prereq: ME-205) ME-206H Engineering Dynamics (Honors) 4 0 4 This is the study of motion and the forces which affect the motion. This course includes the study of rectilinear motion, curvilinear motion, plane motion, dynamic force analysis, work and energy, and impulse and momentum. (prereq: enrollment in University Scholars Program, ME-205) ME-207 Mechanics of Materials 3 2 4 This is the first course in the mechanics of deformable bodies. Topics include stresses and strains produced by axial loading, torsion, and bending; elastic deflections of beams; effects of combined loading; and buckling of slender columns. Laboratory topics will reinforce lecture material. (prereq: ME 205 or ME-255, MA 231 or MA-226) ME-230 Dynamics of Systems 4 0 4 The purpose of this course is to introduce the modeling of the major types of engineering systems and the methods for solving the resulting differential equations. This course will address systems approach to represent dynamic systems and determine their response characteristics. (prereq: MA-235, ME-190, ME-206) ME-230H Dynamics of Systems (Honors) 4 0 4 The purpose of this course is to introduce the modeling of the major types of engineering systems and the methods for solving the resulting differential equations. This course will address systems approach to represent dynamic systems and determine their response characteristics. (prereq: MA-235, ME-190, ME-206) ME-255

Engineering Statics for Nonmechanical 3 0 3 Engineers This is a study of force systems acting on bodies which are not in motion. Includes analysis of forces, location of centroids, evaluation of moments of inertia. This course may not be taken for credit by Mechanical Engineering students for whom ME-205 is required. (prereq: MA-137 or MA-226, PH-110 or PH-113 or PH-2010) ME-257

Strength of Materials for Nonmechanical 3 2 4 Engineers This course is for nonmechanical engineering students. The course provides non-MEs with a background in the area of strength of materials including what is required in the selection of materials to meet actual application requirements. Subjects include the stress-strain relationship, elasticity, as well as axial, torsional and shear stresses and deformations. Interrelated laboratory experiments reinforce the concepts presented in the lecture/analysis sessions. (prereq: ME-255) ME-300 Modeling and Numerical Analysis 3 2 4 This course is a study of mathematical techniques used to model engineering systems. It involves the development of mathematical models and the application of the computer to solve engineering problems using the following computational techniques: Taylor Series approximation, numerical differentiation, root finding using bracketing and open methods, linear and polynomial curve fitting, solution methods for matrix equations, numerical integration, and the solution of differential equations. Laboratory sessions involve the application of numerical analysis to physical systems involving statics, dynamics, fluid dynamics, heat transfer, electrical circuits, and vibratory systems. (prereq: ME-230) 312

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ME-300H Modeling and Numerical Analysis (Honors) 3 2 4 This course is a study of mathematical techniques used to model engineering systems. It involves the development of mathematical models and the application of the computer to solve engineering problems using the following computational techniques: Taylor Series approximation, numerical differentiation, root finding using bracketing and open methods, linear and polynomial curve fitting, solution methods for matrix equations, numerical integration, and the solution of differential equations. Laboratory sessions involve the application of numerical analysis to physical systems involving statics, dynamics, fluid dynamics, heat transfer, electrical circuits, and vibratory systems. For students in the University Scholars Program. (prereq: ME-230) ME-309 Intermediate Mechanics of Materials 2 2 3 This course continues the study of the mechanics of deformable bodies. Topics include statically indeterminate structures, failure theories, fatigue, stress and strain, analysis using stress functions, and design of compression members. Laboratory topics include experiments to reinforce stress/strain behavior topics, the photoelastic method and design projects. (prereq: ME-207) ME-311 Principles of Thermodynamics I 3 0 3 The first subject in engineering thermodynamics for the mechanical engineering student uses the classical approach. The subject material serves as a building block for all thermodynamic oriented subjects to follow. Specific topics include definitions, First Law, heat and work transport, and the steady flow energy equation. Water, as both steam and compressed liquid, and ideal gases are the principal substances considered. (prereq: MA-231, PH-2030) ME-314 Principles of Thermodynamics II 4 0 4 This is a continuation of basic thermodynamic concepts for mechanical engineering students. Unsteady processes, second law, irreversibility and availability (energy) are covered. The thermodynamic principles are applied in the study of power cycles and psychrometric processes. (prereq: ME-311) ME-317 Fluid Mechanics 3 2 4 This course begins with fluid properties, fluid statics, and pressure gauges. The study of fluid dynamics starts with the mathematics of the velocity field and proceeds to a control volume formulation for conservation of mass, momentum and energy. The Bernoulli equation is derived and extended to include pipe friction and minor losses. The student is introduced to boundary layers, and drag. The lab stresses instrumentation and quantification of experimental error. (prereq: MA-232, ME-206) ME-318 Heat Transfer 4 0 4 The purpose of this course is a study of the principles of heat transfer by conduction, convection, and radiation. Application of both analytical and numerical solution techniques will be emphasized. (prereq: ME-311; coreq: ME-317, ME-300) ME-321 Materials Science 3 0 3 Atomic, crystal and defect structure fundamentals are studied to lay the foundation for understanding the structure-property-processing relationship. (prereq: CH-201, ME-207) ME-322 Engineering Materials 3 2 4 The structure-property-processing relationship for materials is studied. Several strengthening mechanisms and the required heat treatment or processing procedures are considered. Material selection in terms of mechanical strength, service stability, cost and environmental impact are discussed in detail. (prereq: ME-321) ME-323 Manufacturing Processes 3 2 4 This course covers the basic manufacturing processes commonly used in the production of metal, plastic, ceramic and composite parts. Process description, product/process characteristics are covered along with design and economic considerations. Topics include casting, powder metallurgy, bulk deformation, sheet metal working, joining, machining, various plastic processes, inspection (dimensional and NDE) and an introduction to quality and lean concepts. Laboratory experiments include measurement, casting, joining of metals and plastics, and statistical process control techniques. (prereq: ME-322)

313

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ME-323H Manufacturing Processes (Honors) 3 2 4 This course covers the basic manufacturing processes commonly used in the production of metal, plastic, ceramic and composite parts. Process description, product/process characteristics are covered along with design and economic considerations. Topics include casting, powder metallurgy, bulk deformation, sheet metal working, joining, machining, various plastic processes, inspection (dimensional and NDE) and an introduction to quality and lean concepts. Laboratory experiments include measurement, casting, joining of metals and plastics, and statistical process control techniques. (prereq: enrollment in University Scholars Program, ME-322) ME-354 Thermodynamics and Heat Transfer 3 0 3 A study of the fundamental concepts and laws of heat transfer, with supporting foundation in thermodynamics. Application of principles of heat transfer to problems encountered in electrical and other systems. Not for M.E. majors. (prereq: MA-231 or MA-3502, PH-220 or PH-113) ME-361 Dynamics of Machinery 2 2 3 This course is an application of the principles of dynamics to mechanisms and machine elements. Topics will include kinematic and dynamic analysis of linkages and cam mechanisms. (prereq: ME-206) ME-362 Design of Machinery 3 0 3 This course is an application of principles of machine dynamics to the design of machinery. Topics include synthesis of mechanisms, machine balancing, design of flywheels, actuator selection and computer-aided design of mechanisms. (prereq: ME-361) ME-363 Design of Machine Components 4 0 4 This course applies mechanics of materials concepts to the design of machine components. Static and fatigue failure criteria are introduced and applied to shafts, bearings, gears, threaded fasteners and helical springs. (coreq: ME-309, ME-361) ME-3650 Systematic Engineering Design 3 0 3 Design is very often understood to be only an intuitive process. Systematic Engineering Design, however, presents methods for much easier and even constant problem solving in the research and development environment. Creativity is coupled to a systematic engineering processes. A project work (ca. 15 weeks) is included. It is based on reality-like assignments, which are solved and worked out by the students themselves. The fundamental steps in product development are trained: â€˜Putting down a requirements list - methodical search for solutions - specifying a concept in a specification booklet - drawing sketches of complete machines concepts and of technical details where necessary.â€™ A final report (Technical File) is required as well as a final presentation of the results in front of student audience. (prereq: junior standing, participation in FHL/MSOE exchange program) ME-401 Vibration Control 3 0 3 This is an introduction to mechanical vibrations, to free and forced vibrations of single-degree of freedom systems, and to two-degree of freedom of systems. Various types of forcing functions are considered for both damped and undamped systems. (prereq: MA-232, ME-230) ME-402 Vehicle Dynamics 3 0 3 This course covers the application of engineering mechanics to the design of road vehicles. Topics include pneumatic tires, load transfer, performance limits, suspension and steering, and handling and response. (prereq: ME-230) ME-409 Experimental Stress Analysis 2 2 3 In this course students learn to apply modern experimental stress analysis techniques to measure strains and stresses in engineering components and structures. The course includes strain gage measurements and analysis, design of strain gage based transducers, photoelasticity and stress analysis. (prereq: ME-309)

314

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ME-411 Advanced Topics in Fluid Mechanics 3 0 3 This course involves the extension and implementation of fundamental principles from fluid mechanics, thermodynamics, and heat transfer into the design of an airduct/radiator system (for a P-51 Mustang fighter airplane) or wind tunnel model experiments, CFD analysis (FloWorks), and technical papers are utilized to aid the design process. (prereq: ME-317 or equivalent) ME-416 Thermodynamics Applications 3 2 4 This course is a continuation of the thermodynamic sequence, with emphasis on applications of thermodynamic principles to typical systems. New topics include internal combustion engines, combustion and compressible flow theory. Design projects and laboratory experiments are used to illustrate the application of First and Second law analysis, and heat transfer, to devices such as pumps and fans, steam power or refrigeration cycles, and psychrometric processes. (prereq: CH-200, ME-314, ME-318) ME-419 Internal Combustion Engines 2 2 3 This course covers the basic theory of internal combustion engines, engine testing, carburetion, combustion, ideal cycles and internal combustion engine fuels, including knock ratings and injection. Spark ignition and compression ignition engines are considered separately in detail. (prereq: ME-416 or consent of instructor) ME-423 Materials Selection 3 0 3 This course provides students with an understanding of materials as grouped systems, as well as familiarization with enough specific engineering materials to allow their effective use in daily assignments. The course also illustrates guidelines for screening candidate materials and arriving at reasonable choices. (prereq: ME-323) ME-424 Engineering with Plastics 3 0 3 This course provides students with knowledge of polymers that are commonly used and of how the physical and mechanical properties of these materials influence their selection. Also, the relation between fabrication processes and material selections in design is presented. (prereq: ME-321 or equivalent) ME-429 Composite Materials 3 0 3 This course introduces the student to the mechanical behavior of fiber-reinforced composite materials. Topics to be covered include anisotropic stress-strain relationships, failure theories, and stress analysis of plates and shells. Different manufacturing methods and applications will be presented. Laboratory exercises include computer modeling of composite laminate performance and mechanical property testing of laminates. (prereq: ME-207 or MT-205) ME-431 Automatic Control Systems 3 2 4 This course provides an introduction to automatic controls used in mechanical engineering applications, including fluid power. Differential equations are used to model and analyze basic feedback control systems. Laboratory experiments are done using fluid power and electronic equipment. (coreq: ME-300) ME-431A Automatic Control Systems (Lecture Only) 3 0 0 This course provides an introduction to automatic controls used in mechanical engineering applications, including fluid power. Differential equations are used to model and analyze basic feedback control systems. This is the lecture component of the ME-431 course, for students participating in the FHL study abroad program. (prereq: ME-230) ME-431B Automatic Control Systems (Lab Only) 0 2 4 This course provides an introduction to automatic controls used in mechanical engineering applications, including fluid power. Differential equations are used to model and analyze basic feedback control systems. Laboratory experiments are done using fluid power and electronic equipment. This is the laboratory component of the ME-431 course, for students participating in the FHL study abroad program. (coreq: ME-300)

315

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ME-433 Electromechanical Systems 3 2 4 This course extends the concepts of feedback control to the design and realization of electromechanical systems. Topics will include modeling, simulation, and digital implementations of control algorithms. The course will include an electromechanical systems design project. (prereq: ME-431) ME-460 Finite Element Methods 3 2 4 This course serves as an introduction to finite element analysis (FEA) for structural problems. In the lecture portion of the course, finite element equations are developed for several element types from equilibrium and energy approaches and used to solve simple problems. In the laboratory portion, students use a commercial, general-purpose finite element computer program to solve more complex problems and learn several guidelines for use of FEA in practice. A project introduces the use of FEA in the iterative design process. (prereq: ME-309) ME-4610 Medical Applications for Mechanical Engineers 3 0 3 Mechanical Engineers are responsible for the design, analysis and construction of various devices employed by medical professionals. The purpose of this course is to introduce the student to the analytical and experimental techniques employed in industry in the design and analysis of these devices. Topics include mechanics of bone, muscle and ligaments, Kinematics of human gait (walking) and analysis of certain medical devices including implants, orthotics and spinal devices. Laboratory sessions are included so that the student may experience the role that experimental methods and modern numerical methods (FEA) play in the development of medical devices. (prereq: ME-207) ME-471 Fluid Power Circuits 3 0 3 This course considers the operating principles and performance of standard fluid power components such as pumps, motors, valves, cylinders, etc. Using standard components, appropriate circuits are designed and calculations made to match components with operating conditions in typical industrial applications. Hydrostatic transmissions, cavitation, accumulators, pump controls for energy conservation, hydraulic fluids and filtration are also covered. (prereq: ME-317) ME-472

Modeling and Simulation in the 2 2 3 Design of Hydraulic Components This course focuses on the continued development of analytical methods as applied to hydraulic components and circuits. Steady-state and limited transient performance of pumps, valves, accumulators, motors, and cylinders as components and systems are addressed (i.e. functional, steady state and dynamic). Linear and non-linear models for pumps, motors, and valves are also developed and applied to systems analysis. Laboratory sessions are included to relate model predictions to actual component performance. Use of Matlab/Simulink for model development is stressed. (prereq: ME-471) ME-475 Design of Fluid Power Circuits 3 0 3 In this course students design a specific type of machine to meet a developed set of specifications. The machine will have a substantial hydraulics content along with electronic interfaces that provide control and sensing. The project usually includes hardware fabrication to provide the student with real-life problems associated with this activity. Tasks include component sizing and selection, systems design, integration with mechanical and electrical systems, and human factors considerations. The open-ended designs are evaluated based on originality, accuracy, safety and written/oral presentations. (prereq: ME-471 or consent of the instructor) ME-480 HVAC Systems Design 2 2 3 This course explores major elements in the design of heating, ventilating, and air conditioning systems. Topics include psychrometric analysis, load estimation, duct/piping design, equipment selection, and energy consumption estimating. Students are required to design elements of HVAC systems, resulting in an understanding of the entire process. (prereq: ME-416 or consent of instructor) ME-4802 Compressible Flow 3 0 3 This course covers the fundamental concepts and results for the compressible flow of gases. Topics to be covered include conservation laws, propagation of disturbances, isentropic flow, 316

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

compressible flow in ducts with area changes, normal and oblique shock waves and applications, Prandtl-Meyer flow and applications, simple flows such as Fanno flow and Rayleigh flow with applications to nozzles, and propulsion related concepts. The emphasis will be on the physical understanding of the phenomena and basic analytical results. (prereq: ME-317, ME-314)

ME-4803 Computational Fluid Mechanics 3 0 3 This course builds a fundamental understanding of the underlying partial differential equations for fluid flow and provides experience with the numerical tools available for solving fluid flow problems. Commercial software will be employed for certain flow problems. (prereq: ME-317 or equivalent, ME-300 or equivalent) ME-4804 Advanced Energy Technologies 3 0 3 This course provides a detailed treatment of various advanced energy technologies. Engineering design, thermodynamic performance, environmental performance and economic considerations will be included in the analysis of systems utilizing solar photovoltaic panels, biofuels, fuel cells, and petrofuel/electric hybrid systems for automotive propulsion applications. (prereq: ME-311 or ME-354 or equivalent) ME-4805 Renewable Energy Utilization 3 0 3 This course provides a detailed engineering treatment of various renewable energy technologies. Engineering design, thermodynamic performance, environmental performance, and economic considerations will be included in the analysis of renewable energy systems. System types include solar photovoltaic panels, solar thermal technology, biofuel technology, and wind energy. Additionally, storage systems for renewable energy will be analyzed. (prereq: ME-4804, ME-311 or ME-354 or AE-2121 or MT-3111) ME-481 Aerodynamics 3 0 3 Reviews non-dimensional numbers and boundary layer concepts. Covers a physical description and understanding of fluid flow over bluff and streamlined bodies; experimental and theoretical lift and drag results for both two-dimensional and finite airfoils; aircraft stability and control; propeller design; automobile aerodynamics, including airfoil, spoilers, and airdams. (prereq: ME-317 or equivalent) ME-485 Energy Systems Design Project 3 0 3 This course involves the application of energy principles to an engineering design problem. A project with practical application is chosen, with an emphasis on resource conservation. (prereq: ME-318 or ME-354 or equivalent) ME-490 Senior Design I 3 0 3 This course functions as the proposal-writing phase for the major design experience in the Mechanical Engineering Program. Student design teams are organized, and paired with a faculty advisor. A detailed design proposal is prepared. Topics covered in lectures and addressed in the design proposal include the design process, engineering specifications, patents and intellectual property, library research techniques, reliability and safety, design for manufacturability, and project management. (prereq: senior standing) ME-491 Senior Design II 1 0 3 This course is a continuation of ME-490. Students are required to complete or show sufficient progress on an engineering design project proposed in ME-490. Design work is performed by design teams under the supervision of a faculty advisor. A final or interim design report is prepared and orally defended. Lecture meetings are used for discussion of topics related to professionalism and engineering careers. (prereq: ME-490) ME-492 Senior Design III 1 0 3 This course is a continuation of ME-491. Students are to create a prototype of the engineering design project proposed in ME-490 and initiated in ME-491. Design work is performed by design teams under the supervision of a faculty advisor. A final design report is prepared and orally defended. (prereq: ME-491, consent of project faculty advisor and ME-492 instructor) ME-4950 Diploma Thesis 0 0 3 This course involves the performance, documentation and defense of individual industrialbased project work to meet the requirements for the joint FHL/MSOE degree program. (prereq: ME-491 and participation in the FHL/MSOE exchange program)

317

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

ME-4951 Diploma Thesis I 1 0 1 This course involves the performance, documentation and defense of individual industrial-based project work to meet the requirements for the joint FHL/MSOE degree program. (prereq: ME-491 participation in the FHL/MSOE exchange program) ME-4952 Diploma Thesis II 2 0 2 This course involves the performance, documentation and defense of individual industrial-based project work to meet the requirements for the joint FHL/MSOE degree program. (prereq: ME-491 participation in the FHL/MSOE exchange program) ME-498 Topics in Mechanical Engineering 3 0 3 This course allows for study of emerging topics in mechanical engineering that are not present in the curriculum. Topics of mutual interest to faculty and students will be explored. ME-499 Independent Study 0 0 3 This selection allows the student, with faculty guidance, to concentrate on an approved subject of special interest not covered in regularly scheduled courses. This may take the form of individual or small group supervised study, literature survey, analysis, design or laboratory study. (prereq: senior standing and approval of a faculty advisor and the program director) MS-1010 Introduction to Business 3 0 3 The primary learning outcome of this team-taught course includes familiarity with business functional areas; marketing, accounting, economics, finance, operations, information technology, management strategy, entrepreneurship, and global business. Interactive learning methods are used including; case analysis, business writing, e-learning, team projects, and small group discussion. Emphasis is placed on differentiating MSOE business and information technology degrees. MS-184

Introduction to Computer 3 0 3 Methods and Applications This course introduces the student to the fundamental concepts of personal productivity software including MSOE’s on-line learning systems and computing environment, the Microsoft (MS) Office 2007 suite (Word, Excel, PowerPoint, and Access), MSOE library digital resources, laptop security, and collaborative on-line technologies. The course materials are presented in a combination of in-class activities and hands-on style. MS-1850

Computer Methods and Applications 3 0 3 in Health Care This course introduces Nursing majors to the fundamental concepts and use of personal productivity application software and information technology in healthcare. Students gain skills and proficiency using MSOE computing resources, online learning systems, and computer-based nursing tools. Software introduced in the course includes Microsoft Office programs (Word, Excel, PowerPoint, Access), online clinical information sources (UpToDate, Epocrates, ECCO, clinical pathways), communication and collaborative applications (email, discussion boards, collaborative suites - Google Groups, Zoho), and MSOE systems (Blackboard, myMSOE, online library databases, network resources). Course topics are presented in “hands on” style and class sessions are conducted in tutorial mode. (prereq: nursing major) MS-221 Microeconomics 3 0 3 This course provides an introduction to the central concepts of microeconomic analysis and decision-making, such as demand and supply, elasticity and marginalism. The concepts are then used to explain and analyze market structures, including perfect competition and monopoly. Other topics may include analysis of labor markets, property rights and international economics.

318

MS-2220 Foundations of Business Economics 3 0 3 This course presents fundamental concepts of economics and expects a student will demonstrate understanding of the interactive nature of global, national and local economic systems. The course explores how individuals, households, businesses and governments use scarce resources to satisfy unlimited wants and needs. Emphasis is placed on how economics serves as the basis for business decisions. Students required to take MS-221 Microeconomics or MS-322 Macroeconomics are not eligible to earn credit toward their major for MS-2220.

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-2220H Foundations of Business Economics 3 0 3 This course is offered as part of the University Scholars Program. It is taught in seminar-style with a variety of guest speakers and company visits. Students engage in the fundamental concepts of economics and are expected to demonstrate understanding of the interactive nature of global, national and local economic systems. The course explores how individuals, households, businesses and governments use scarce resources to satisfy unlimited wants and needs. Emphasis is placed on how economics serves as the basis for business decisions. Enrollment is limited to students participating in the University Scholars Program. MS-2225 Health Care Economics 3 0 3 This course provides an introduction to the central concepts of microeconomic and macroeconomic analysis and decision-making. Topics included in this course explore the fundamental framework of allocation resources recognizing scarcity of resources and time. This course examines cases set within healthcare both within an organization and connected with the national economy set within a global marketplace. Fundamental concepts include: demand and supply, elasticity and marginalism, inflation, unemployment, business cycles, role of government. These concepts are then used to explain and analyze market structures, including perfect competition and monopoly. Other topics may include analysis of labor markets, property rights and international economics. MS-2420 Foundations of Enterprise Resource Planning 2 2 3 This course introduces Enterprise Resource Planning (ERP) systems. The foundations of these systems will be explored, such as implementing ERP, selection of software, integration of processes and transactions, and challenges associated with successful implementation of ERP applications. The course will include exposure to ERP software. Students will receive hands-on experience with software such as SAP and Microsoft Dynamics. MS-273 Website Design 3 0 3 This hands-on course is designed for beginners in Website design. The course will cover how to use XHTML to create web pages as well as how to incorporate Cascading Style Sheets (CSS) and JavaScript. Students will complete a website from start to publishing it on the Internet. MS-275 Advanced Website Design 3 0 3 This hands-on course is designed for website designers with some experience. The course will cover website design beyond the basics as well as how to create graphics, animation and JavaScript form validation into an already created website. The student will enhance a preexisting website with graphics and JavaScript while using the advanced website design techniques. Upon completion of this course, it is expected that students will be able to understand in-depth knowledge of website development; select approaches, strategies and techniques for integrating Internet technologies into the design and development of websites; and, incorporate form validation with JavaScript, animated graphics, and advanced Web design techniques. (prereq: MS-273) MS-277 Multimedia for Website Design 3 0 3 This hands-on course is designed for experienced website designers interested in including multimedia on their sites. The course will cover all aspects of creating and including multimedia on a site specifically using Adobe Illustrator and Macromedia Flash. You will create a multimedia project using the techniques discussed in class. Upon completion of this course, students will be able to understand multimedia and the issues surrounding its inclusion on websites; select approaches, strategies and techniques for integrating multimedia technologies into the design and development of websites; and incorporate Flash technologies into their websites. (prereq: MS-273) MS-2771 Object-oriented Programming for the Web 3 0 3 This course introduces the concepts of object-oriented programming to beginners. Upon completion of this course the student should have a basic understanding of the software development lifecycle issues, the design process, the reuse of existing software components, and the thought processes involved in object-oriented programming for the Web. (prereq: computer programming, or consent of department chair (no specific course)) 319

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-2773 Java for Web Design 3 0 3 This hands-on course is designed for experienced programmers that want to learn Java. Upon completion of this course, students will be able to: learn the basics of creating Java applets and applications; create object-oriented programs using Java; incorporate graphics, sound and event handling; use multiple threads to create animations; and understand and use inheritance and polymorphism properly. (prereq: MS-2771 or equivalent object-oriented programming language experience) MS-2775 Servlets for the Web 3 0 3 This hands-on course is designed for experienced programmers that want to learn the basics of server-side Java programming. Upon completion of this course, students will be able to: create servlets that provide dynamic Web content to users; incorporate graphics and multimedia responses to client requests; use multiple threads to create animations; require users to authenticate themselves in order to protect Web content; and understand the basics of Java Server Pages. (prereq: MS-2773 or equivalent) MS-2777 Web JavaServer Pages 3 0 3 This hands-on course is designed for experienced programmers that want to learn the basics of server-side Java programming. Upon completion of this course, students will be able to create JSP pages that provide dynamic Web content to users; incorporate graphics and multimedia responses to client requests; understand how multiple threads affect JSP coding; allow users to authenticate themselves in order to protect web content; and, understand the basics of XML processing. (prereq: MS-2775 or equivalent Java programming language experience) MS-280

Introduction to Management 3 0 3 Information Systems This course provides the technical foundation for understanding information systems by describing hardware, software, data storage and telecommunications technology that comprise an organizationâ€™s information technology infrastructure. The role of information systems is explored with emphasis on business processes, distribution of organizational knowledge to enhance management decision-making, and the implications of ethical and social issues. An examination of electronic commerce and global business is included. (prereq: MS-184 or equivalent) MS-2810

Introduction to Computer 2 2 3 Programming - Visual Basic This course is designed to introduce students to computer programming and the approaches and methods used by programmers. The course provides opportunity for experience in designing and writing structured programs in the Visual Basic language. This graphically-based programming language will prepare students to write fundamental interactive computer programs. MS-2815 Developing Business Solutions with C# 3 0 3 The course focuses on the creative and analytical problem-solving techniques required to write high quality programs that address business needs. It provides an introduction to programming concepts and object-oriented program design, in addition to an overview of user interface design and data-driven business applications. Students will learn in a hands-on format, and will develop two complete application programs for the desktop and Web, using the C#.NET and the Visual Studio platform. (prereq: MS-184 or equivalent) MS-300 Principles of Operating Systems 3 0 3 This is an introductory course that covers the principles of operating systems from the userâ€™s point of view. The four major components (scheduling, memory management, I/O management and file systems) are examined in detail along with how various hardware components of a computer system work together. (prereq: one course in computer programming)

320

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-3010 Introduction to Health Care Industry 3 0 3 This course provides an overview of the health care industry in the USA. Health care is one of the largest and most complex industries and does not operate like other businesses. The goal of any health care system is to provide essential health care services to the entire population. Covered topics include the conceptual basis for our health care system, its history, the stakeholders (public, private, people and organizations), the role of technology, the issues of cost, access and quality (patient safety), health policy and the future of the system. This course is appropriate for students expecting to work in the health care sector (provider, administration, payer, technology, etc.) and especially for those hoping for career advancement. (prereq: sophomore standing) MS-3030 Organizational Development in Health Care 3 0 3 This course explores the leadership roles and functions in the modern health care organization. Included is working with boards and organized medical staffs. Students will examine the problems and dynamics of organizational change. Various leadership strategies and resources that facilitate change and on-going personal development will be studied. The course emphasizes the learning process, OD interventions, consultant skills, reinforcement, monitoring success, and ethical issues. (prereq: MS-3010) MS-3050

Health Care Budgeting and 3 0 3 Financial Management This course begins with an introduction to healthcare finance and a description of the current financial environment in which healthcare organizations function. It then will explore how financial and managerial accounting processes are applied in healthcare settings, presenting concepts that are critical to making sound financial decisions to better the cost-effectiveness of the organization. (prereq: MS-354) MS-322 Macroeconomics 3 0 3 This course outlines and analyzes the application of the principles of economics to modern business and the economic environment. Topics include measuring and understanding GDP, unemployment and business cycles, national debt and the role of government as expressed in macroeconomic theory from the classical to the supply side. Monetary and fiscal policy efforts to promote employment, price stability and economic growth are reviewed. MS-3220 Sustainability Management and Economics 3 0 3 This course will explore and reveal the fundamental economic and social responsibility theories that underpin sustainability. Students will learn how sustainability is implemented as a business strategy. Specific topics include life-cycle management, cap and trade legislation, triple bottom line, cradle-to-cradle design, waste reduction and return on investment analyses. (prereq: one course in economics (e.g. MS-2220, MS-221, MS-322)) MS-327 International Business 3 0 3 This course is designed to develop an understanding of the expanding need for businesses to think and respond with an international focus. An initial focus is recognizing the forces of globalization, the factors to consider when moving into new markets, and the methods by which firms decide to compete in these foreign markets. Emphasis is given to developing an analysis and appreciation of at least one country/region of the world with regard to its geography, people, history and the associated business risks within this environment. Secondary goals in the course include expanding on the sensitivity to other cultures, and encouraging students to think of their career in the context of a global path. (prereq: one course in economics (e.g. MS-2220, MS-221, MS-322 or IE-423)) MS-331 Business Law 3 0 3 This subject acquaints the student with legal concepts and their application to business and personal situations. Attention is paid to problems arising under the following topical headings: basic nature of the legal system; tort law; contract law, including both common law principles and the provisions of the Uniform Commercial Code; products liability law; debtor/creditor relations; bankruptcy law; and agency law. 321

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-3330

Legal Aspects of Innovation and 3 0 3 Entrepreneurship This course will focus on topics important and interesting to anyone involved with managing or creating technology. The goal is to provide students with an understanding of fundamental legal issues pertinent to technology management. The course focuses on a wide range of controversial issues regarding intellectual property rights (i.e. patents, copyrights, trademarks and trade secrets) and addresses strategic decision making such as how to protect computer and internet projects. A seminar approach will be followed with student participation expected. (prereq: junior standing and consent of department chair) MS-340 Production Management 3 0 3 Production Management (MS 340) introduces the student to the concepts and methods for designing and managing operations in both manufacturing and service industries. Operations are processes that transform input into output of goods and services. Operations management addresses the application of resources needed to achieve transformation with regard to cost, quality and customer satisfaction. (prereq: one course in economics (e.g. MS-2220, MS-221, MS322 or IE-423)) MS-3401

Applied Operations Management: 3 0 3 Lean Techniques Lean techniques can be used to improve any business process and make companies globally competitive. During this course students will learn to identify what is value-added and what is waste in any business process and to eliminate identified waste. Students will also learn the value of teamwork in a Lean Enterprise and will be introduced to the concepts of 5S, Value Stream Mapping and Kaizen. Credits for this course can be earned upon successful completion of the Business Excellence Consortium’s Lean Associate Certificate. MS-3403 Managing for Quality 3 0 3 This course introduces and requires application of the skills and tools necessary to implement and maintain a continuous improvement environment. Through the use of appropriate models and tools, students will demonstrate the application of a personal philosophy of quality, identify stakeholder relationships, develop approaches to meet/exceed customer expectations, explore systems-focused approaches, manage a quality improvement project and measure effectiveness of continuous improvement activities. (prereq: one course in economics (e.g. MS-2220, MS-221, MS-322 or IE-423)) MS-3405 Advanced Operations Management 3 0 3 This course describes the value of and an approach to develop a manufacturing operations strategy. Also addressed is the need to align manufacturing with overall organizational strategic plans and objectives. Manufacturing’s early involvement in the planning process is critical. Typically manufacturing’s active involvement takes place late in the planning cycle. This course will address why the late involvement exists and the need for early involvement. Late involvement often leads to a flawed strategy and/or strategies difficult for manufacturing to successfully support. A factor in the flawed approach is often due to manufacturing’s excessive attention to day-to-day issues. The day-to-day necessity may also be symptomatic of a flawed manufacturing process. Late involvement provides little time to assess and acknowledge current system flaws. Building a strategy from a flawed system or process is a potentially devastating situation. (prereq: MS-340) MS-3406

Applied Operations Management: 3 0 3 Six Sigma Introduction This certificate program offered by MSOE’s Business Excellence Consortium is designed to provide a fundamental understanding of Six Sigma. In addition to background of the methodology, there are practical examples of how to apply Six Sigma. This certificate is the essential baseline knowledge needed to get an individual prepared to work in a Six Sigma environment.

322

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-3411 Leading Project Teams 3 0 3 Techniques of studying, analyzing, improving, managing and leading the growth, productivity and development of individual and group competencies to enhance project performance are explained and practiced in this course. The course includes the processes required to make the most effective use of the people involved with the project. The importance of involving team members in the linking and overlapping of process groups in various project phases is emphasized. This course helps managers deal with value dilemmas, conflict, resistance to change and project team-building skills. (prereq: sophomore standing) MS-342 Management Principles 3 0 3 This is a survey course on the management processes of planning, organizing, leading and controlling. The course begins with a comparison of the current spectrum of management philosophies. Social responsibility and ethical decision-making are normally covered through case studies, while the emerging interest in international and cross-cultural managing is interwoven throughout the course. Traditional functions of management such as strategic planning and organizational design are given special emphasis to stimulate discussion on how organizations adapt to global conditions. MS-3420 International Management 3 0 3 This course explores the dynamic global business environment facing managers who are expected to understand the political, legal, technological, competitive and cultural factors that influence corporations worldwide. Topics emphasize developing the cultural sensitivity and ability to manage across cultural boundaries, design and implement global strategies, and improve the understanding of organization controls and leadership needed within the context of a foreign countryâ€™s business practices. MS-3423 Innovation and Business Markets 3 0 3 This course explores the foundation, functions and models of businesses based on innovation, creativity and value production. Course topics include (a) generation of commercializable new ideas in both new ventures and existing organizations; (b) challenges to organizations based on creativity and innovation; (c) trade-offs in making resource allocation decisions innovative ideas; and (d) strategies for businesses based on fast-changing creative and innovative products. The course features guest speakers and includes assignments involving entrepreneurship and business development. Students will develop an understanding for the steps and strategies needed to move innovative ideas to commercial success. (prereq: sophomore standing) MS-3425 Entrepreneurship - An Overview 1 0 1 This course is designed to introduce students to the process of creating a new venture within an existing business or as a new company. The focus will be to provide participants with the knowledge and practical insights, opportunities and challenges associated with transforming a business idea into reality. The course will utilize case analysis, discussion, guest speakers, and business planning to reinforce course content. (prereq: sophomore standing) MS-3427 Entrepreneurial Business Plans 1 0 1 This course continues the development of entrepreneurship by transforming the opportunity for a business into a written document, the plan. The purpose of the course is to increase the success rate of a venture by converting the concept for a business into a well developed business plan. (prereq: MS-3425) MS-3429 Entrepreneurial Finance 1 0 1 MS-3429 continues the development of entrepreneurship by examining the key financial elements of entrepreneurial or small company ventures. The course explores the role of the entrepreneurial manager in developing a financial plan and raising capital from commercial banks, angel investors, venture capitalists, private placement, and other sources. Each source is reviewed for its impact on the financial value of the firm, while the concluding segment of the course discusses the strategies for exiting the business.

323

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-344

Organizational Behavior and 3 0 3 Leadership Development The course examines organizations and the interactions among individuals and groups. Students will explore the challenges of managing people in organizations in terms of the interaction between human beings and the organizational contexts within which they work. Further, individual differences of human behavior will be compared and contrasted to differences in organizations. The course has three areas of focus. First, fundamental concepts of organizations are introduced, including form, structure and culture. Second, individual characteristics and behaviors are examined, including perspectives, attitudes, personality and judgment. Third, the principles of groups and group dynamics are presented, including formation, development, processes and leadership. The goal of the course is to prepare students to effectively manage resources, both human and technical. (prereq: sophomore standing) MS-3445 Organizational Development and Consultancy 3 0 3 This course presents organization development as a system-wide application of behavioral science to the planned development, improvement, and reinforcement of the strategies, structures and processes that lead to organization effectiveness. Students will learn how to use critical thinking skills to develop a tightly knit logic trail of findings, conclusions and recommendations that are defensible and persuasive. Consultancy, from both an internal and external perspective, will be introduced to include need identification, planning, scope definition, deliverables and role/responsibility assignments. The course will emphasize business communications through the development of clearly stated, client-centered presentations. (prereq: MS-344 or SS-461) MS-354 Principles of Accounting 3 0 3 This course focuses on the preparation and understanding of the four basic financial statements - income statement, statement of retained earnings, balance sheet and statement of cash flow. Specific topics include basic double entry accrual accounting and the special requirements in accounting for managing cash, receivables, investments, inventory, fixed assets, liabilities and equity. The Great Plains computer software program is used to illustrate how computers facilitate the accounting process. Students are required to complete a transaction-based term project using both manual and computer techniques. (prereq: MS-221) MS-356 Business Finance 3 0 3 This course introduces students to various aspects of financial management. Topics covered include a review of accounting, financial analysis and forecasting, operating and financial leverage, working capital and financing decisions, current asset management, short-term sources of financing and the time value of money. Students are required to complete a financial statement analysis term project. (prereq: MS-354) MS-358 Managerial Cost Accounting 3 0 3 This course introduces students to various methods used by companies to internally allocate and report costs. Topics covered include the scheduled cost of goods manufactured, cost allocations using job order costing, process costing, activity-based costing, variable costing, cash budgeting, flexible budgeting, the use of standard costs for variance analysis and the balanced scorecard. Students are required to prepare a complex cash budget term project. (prereq: MS-356) MS-361 Marketing 3 0 3 An introductory course to marketing that familiarizes students with the marketing concept and helps them understand how the marketing concept influences various decisions made by managers in a firm. Topics include the evolution of marketing, the significance and use of marketing research, marketing segmentation, product and/or service positioning, distribution, pricing, customer relationship management, and a variety of strategies for marketing communication and promotion.

324

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-3615 Services Marketing 3 0 3 This course addresses the distinct needs and problems of service organizations in the area of marketing. The courses theme is that service organizations require a distinctive approach to marketing strategy, both in its development and execution. This course integrates ideas from other business courses to make them specifically applicable in service industry settings. The course explores the role of service in manufacturing businesses and introduces ways that manufacturing firms might use â€œserviceâ€? as a competitive advantage. (prereq: one course in economics (e.g. MS-2220, MS-221, MS-322 or IE-423)) MS-363 E-business Marketing Strategies 3 0 3 This course examines the business and marketing decisions a firm faces when attempting to establish an electronic business presence on the Internet. E-business involves more than just Internet sales transactions. It affects an organizationâ€™s infrastructure, marketing channels, customers, and supply chain. Focus is on what a manager needs to know about Internet infrastructure, strategy formulation and implementation, technology concepts, public policy issues, and capital infrastructure in order to make effective business decisions. The course covers emerging e-business models, developing an Internet strategy, using the Internet for customer relationship management, conducting business through the Internet, and establishing a Web presence. (prereq: MS-361) MS-365 Business-to-Business Marketing 3 0 3 This course covers the strategies and activities involved in the marketing of products and services to business buyers, government and various marketing intermediaries. It involves investigating decision-making at all levels of B2B marketing. It will cover developing marketing programs and plans to build customer relationships with an emphasis on segmentation, personal selling and customer retention. A customer-focused approach will be used in analyzing marketing fundamentals. (prereq: MS-361) MS-3680

Fundamentals of Multimedia 3 0 3 Production for Business This course introduces the student to the technical aspects of production and provides the opportunity to work in a variety of formats. Emphasis is place on business applications of multimedia. Essential skills are gained in a sequence that fosters an understanding of the production process and permits individuals to take on progressively more complex projects. Skill sets include camera operation, scripting, pre-production planning, lighting, audio and video editing in a digital environment. (prereq: MS-273 or consent of department chair) MS-371 Introduction to Unix Operating Systems 3 0 3 This first course in Unix is designed to acquaint the student with the usage, philosophy and design behind a robust, open system. The student is exposed to the standard utilities, shell scripting languages and some of the tools that are commonly available to Unix users. The goal of this course is to familiarize student with the Unix basics for further study, and to acquaint the student with the ideals of an open system utilizing multitasking, networking and high-level computing language manipulation. (prereq: MS-382) MS-373 Advanced Unix and System Administration 3 0 3 The second course in Unix is a continuation of the first course, with more emphasis on some of the topics covered briefly in the earlier course. In-depth coverage of system control and administration, process manipulation, specialized utilities and PERL scripting is presented. (prereq: MS-371) MS-3803 Intermediate Java Programming 3 0 3 This, the second course in the Java programming sequence, introduces core object-oriented principles and their implementation in Java. Topics covered include objects and classes, inheritance and polymorphism, interfaces and inner classes, graphics programming basics, event handling and exception handling techniques. (prereq: MS-382)

325

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-3804 Advanced Java Programming 3 0 3 This, the third course in the Java programming sequence, introduces topics that are the basis for building robust, reliable systems in Java. Topics covered include data structures and the collections API, streams and files, multithreading, networking and database connectivity. (prereq: MS-3803) MS-3805 Introduction to Enterprise Java Programming 3 0 3 The Java 2 Enterprise Edition (J2EE) is introduced in this course by exploring servlets (Java server-side components that complement applets on the client-side). All aspects of servlets are introduced via hands-on programming assignments that exercise the details of how servlets interface with the client by using Hypertext Markup Language (HTML) and Hypertext Transfer Protocol (HTTP). Open source components such as Apache, Tomcat-Catalina and Ant will be used in the hands-on portion of the course. (prereq: MS-3803) MS-3806 Intermediate Enterprise Java Programming 3 0 3 The Java 2 Enterprise Edition (J2EE) is further investigated in this course by using JavaServer Pages (JSP) as a server-side scripting language to quickly develop Enterprise Java Web sites. JSP expressions, declarations, scriptlets, directives and custom tag libraries are investigated and used in course programming assignments. Open source components such as Apache, Tomcat-Jasper, Ant, JUnit, Struts and Velocity are used in the hands-on portion of the course. (prereq: MS-3805) MS-3807 Advanced Enterprise Java Programming 3 0 3 The Java 2 Enterprise Edition (J2EE) is further explored in this course by using Enterprise JavaBeans (EJB) as a gateway into legacy applications such as databases, transactions and security frameworks made popular in enterprise computing environments. EJB home interfaces, remote interfaces, local interfaces, session beans, entity beans and message beans are investigated and used in the course programming assignments. Open source components such as JBoss, JUnit, CVS and Xdoclet are used in the hands-on portion of this course. (prereq: MS-3806) MS-3812 C++ Programming for Business 3 0 3 The object-oriented programmer is introduced to the syntax and semantics of the C++ programming language. Students write several programs exploring basic techniques covering the concepts of: C++ expressions, data types, functions, parameter passing, control structures, data structures and operator overloading. The basic object model in C++ is covered and the canonical form of class authorship is stressed (constructors, destructors, copy constructors and overloading the assignment operator). (prereq: MA-127) MS-382 Introduction to Java Programming 3 0 3 The beginning programmer is introduced to the syntax and semantics of the Java programming language. Students write several programs exploring basic techniques covering the concepts of expressions, data types, flow of control, modularity of code, program documentation and commenting style. Simple data structures are introduced, along with the basic object model concept and simple class constructs. Problems from the world of business are used in programming assignments. (prereq: MA-127) MS-3832 Advanced C++ Programming for Business 3 0 3 This course continues looking into computer systems and software by studying one of the popular high-level languages, C++. The course provides in-depth study into the structured concepts of program and algorithm design. Specifically, the inheritance and polymorphism features of the language are covered, with particular focus placed on algorithm development using the Standard Template Library (STL). Lab exercises using Microsoftâ€™s Visual C++ and Unix/Linux K-Develop and Gnu g++ compiler to reinforce the topics presented in the lecture, while demonstrating the multi-platform nature of this widely-adopted systems programming language. (prereq: MS-3812)

326

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-387 Computer Systems Analysis and Design I 3 0 3 This course provides a survey of business systems development methodologies, as well as an overview of the systems development life cycle and the concepts, tools and techniques currently used in the analysis of management information systems and the design of new systems and applications. MS-388 Computer Systems Analysis and Design II 3 0 3 This course continues the use of systems analysis skills learned in MS-387. Students are assigned to a project team that does a feasibility study and new system design for a â€œreal-worldâ€? client. (prereq: MS-387) MS-389 Data Center Management 3 0 3 This course emphasizes the managerial control and administrative functions associated with managing a data center. Particular emphasis is placed on organizational structure, operational metrics/performance measures, acquisition of hardware and software, and management of critical functions. (prereq: MS-280 and MS-342) MS-393 Quantitative Management Techniques 3 0 3 This course introduces students to various models and techniques used to assist managers in decision-making, including application of many of the statistical techniques from MA-340. Topics covered include decision analysis, linear programming, transportation models, facility location techniques, waiting lines, simulation and time-series forecasting techniques. (prereq: MS-340) MS-395 E-business Technologies 3 0 3 Todayâ€™s businesses are global in nature. An Internet presence is essential to the marketing and sales efforts of any organization. Network technologies allow virtual storefronts to compete with brick-and-mortar (traditional) sales vendors. This course examines what it takes to produce a "web presence" using a number of tools and technologies (LAMP: Linux, Apache, MySQL and Perl/Python/PHP). It emphasizes that the business model, expressed as use-case requirements, has to be satisfactorily completed prior to embarking on a development project. An overview of e-business technologies will be covered, along with the building of an e-business site. (prereq: MS-483) MS-3991 Supply Chain Management 3 0 3 With the growth of information systems, expansion of international competition and the deregulation of the transportation system, many companies are analyzing and working to optimize their entire supply chain, from raw materials to ultimate customer. This course examines the elements of supply chain, including logistics, inventory and information. Throughout, it emphasizes the need to develop strategies and incentives that optimize the entire supply chain, not just single units of it. (prereq: MS-342) MS-4030 Legal Aspects of Health Care Management 3 0 3 This course will provide students with the skills necessary to mitigate liability through risk management principles, develop relationship management skills, apply an ethical decisionmaking framework, incorporate business law procedures, and manage communication. (prereq: MS-331) MS-4040 Health Care Quality Systems and Improvement 3 0 3 Students apply contemporary management methodologies in healthcare environments to address issues of quality and patient safety. The methodologies incorporate the organizational change management required to achieve successful outcomes, improved quality and reduced errors. Students in this course will learn to use and apply the Lean and Six Sigma tools to define, measure, analyze, improve and control the complex processes of health care delivery. These same tools can also be applied to create quality processes related to the development and implementation of management solutions. (prereq: MS-3030)

327

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-4060

Marketing and Public Relations in 3 0 3 Health Care This course details the creation, design, and production of publicity and marketing for healthrelated organizations. Topics include strategies of effective public relations lobbying, fundraising, news management, market and audience research, needs assessment, role of stakeholders, and connecting to the community. Students will focus on specific strategies health care managers can use to advance a health care organization. MS-4080

Information Technology Systems in 3 0 3 Health Care This course is an in-depth and comprehensive introduction to concepts and applications of health information management in healthcare. Students explore the latest legislation affecting health data as well as the use of data warehousing, web technologies and database management systems in health information practice. It includes discussions of electronic medical records, healthcare settings, patient records, registers, legal aspects, coding, and reimbursement. (prereq: MS-280) MS-419 CompTIA A+ 2 2 3 This course provides students with the knowledge and hands-on lab-based experience necessary to support personal computers and peripherals. It prepares students for the CompTIA A+ certification exam by providing a firm foundation of technical skills and knowledge. Topics covered include computer bus architecture, memory technologies, microprocessors, disk storage, troubleshooting, and operating system installation and configuration. This course is designed to prepare non-computer literate individuals with the background necessary to enter the Microsoft MCSE, MCSA, or Novell CNE programs. MS-4203 Microsoft Windows 7 Configuration 2 2 3 This course provides students with the knowledge and skills necessary to install, deploy, and configure Microsoft Windows 7. Topics include installing Microsoft Windows 7, configuring applications, network connectivity, access to resources, mobile computing, monitoring performance, and troubleshooting. The course includes face-to-face class sessions, in-class and virtual labs. The course covers material in Microsoftâ€™s official curriculum course #6292A (Installing and Configuring Windows 7 Client), and the associated certification exam #70-680 required for the Microsoft Certified Technology Specialist (MCTS) certification. (prereq: one course in computer programming or computer networking; or equivalent professional experience) MS-4212 Microsoft Windows Server 2008 Administrator 2 2 3 This course provides students with the knowledge and skills necessary to handle the day-to-day management of the Windows Server 2008 operating system. Topics covered include server administrator responsibilities such as the operations of an infrastructure of servers, managing the infrastructure, Web and IT application servers of the enterprise organization, remote server management tasks using Terminal Server or administration tools installed on their local workstation, managing the server operating system, file and directory services, software distribution and updates, monitoring and troubleshooting assigned servers, supporting engineering projects, server builds and configuration, administrator operations, engineering and support tasks. The course includes face-to-face class sessions, in-class and virtual labs. MS-4212 maps to the Microsoft certification exam #70-646 and the Microsoft Certified IT Professional (MCITP): Server Administrator certification. (prereq: MS-479 or networking experience equivalent)

328

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-4222

Microsoft Windows Server 2008 2 2 3 Active Directory Configuration This course provides students with the knowledge and skills to successfully plan, implement, and troubleshoot a Microsoft Windows Server 2008 Active Directory service infrastructure. The course focuses on a Windows Server 2008 directory service environment, including forest and domain structure, Domain Name Systems (DNS), site topology and replication, organizational unit structure and delegation of administration, Group Policy, and user, group, and computer account strategies. The course includes face-to-face class sessions, in-class and virtual labs. MS4222 maps to Microsoft’s official curriculum course (MOC) #6425B - Configuring and Troubleshooting Windows Server 2008 Active Directory Domain Services, and the associated certification exam #70-640. (prereq: one of the following: MS-4211, MS-4212 or MS-479, networking experience equivalent) MS-4232

Microsoft Windows Server 2008 Network 2 2 3 Infrastructure Configuration This course provides students with the knowledge and skills to implement, manage, and maintain a Microsoft Windows Server 2008 network infrastructure. Topics covered include implementing, managing, and maintaining Dynamic Host configuration Protocol (DHCP), Domain Name Systems (DNS), and Windows Server Update Services (WSUS); securing Internet Protocol (IP) traffic with Internet Protocol security (IPSec) and certificates; implementing a network access infrastructure by configuring the connections for remote access clients; and managing and monitoring network access. The course includes face-to-face class sessions, inclass and virtual labs. MS-4232 maps to the Microsoft’s Official Curriculum course (MOC) #6421A - Configuring and Troubleshooting a Microsoft Windows Server 2008 Network Infrastructure, and the associated certification exam #70-642. (prereq: one of the following: MS-4212, MS-4231 or MS-479, or networking experience equivalent) MS-433 Small Business Management 3 0 3 Small business management emphasizes the aspects of management that are most important to the success of a small business firm: understanding the importance of planning, knowing the customer, and recognizing the problems of owning your own business. Comparison of the management techniques required in both small and large organizations allows students to see themselves in the role of entrepreneur, member of a small business organization and member of the larger corporation. (prereq: junior standing) MS-439 Principles of Real Estate 3 0 3 This course is an overview of how to select, finance and maintain real property for personal or investment purposes. It includes discussions of the real estate market, property rights, tax issues, cash flow analysis, property valuation and the lending process. (prereq: one course in economics (e.g. MS-2220, MS-221, MS-322 or IE-423)) MS-4401

Applied Operations Management: 6 0 6 Lean Lead Certification This 15-day certificate program offered by MSOE’s Business Excellence Consortium is designed to introduce tools and concepts of Lean Manufacturing/Operations. It prepares individuals to facilitate work team events and expects that participants apply the tools when possible in their work settings. Upon completion, participants will be able to define Lean, describe the principles of Lean identify and apply Lean tools, determine where and when Lean tools most effective, implement Lean in their organization. MS-4406

Applied Operations Management: 6 0 6 Six Sigma Advanced This certificate program offered by MSOE’s Business Excellence Consortium includes six, daylong sessions on the Six Sigma Methodology and tools and how to apply them in operations. This program provides students with working knowledge of how to continuously make 10X improvements in productivity through the use of Six Sigma and Design for Six Sigma (DFSS). Upon completion, students will know how to use and apply the methodology and tools to quickly impact business results. 329

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-441 Supervision 3 0 3 This course investigates the supervisor’s role in a modern business including human relations, motivation and communication. It emphasizes the planning, organizing, staffing, directing and controlling aspects of supervision through the application of principles to real-life case situations. (prereq: MS-342) MS-4411 Compensation System Design 3 0 3 This course examines various aspects of compensation involving the design and evaluation of jobs; the measurement and recognition of individual and/or group performance; designs to attract, maintain and motivate good people; as well as to protect, reward, and enhance work life and organizational results. (prereq: junior standing) MS-442

Management in the Era of 3 0 3 Rapid Technological Change This course is an assessment of factors critical to the management of organizations experiencing rapid technological change. Today’s exponential growth of technology is redefining the resources that are critical in the management of business and industry. In the twentieth century the critical resources were cash, equipment, facility, raw materials and transportation. Tomorrow’s critical resources include information. Management’s challenge is twofold. First is to gather and transform data into useful information. Second is to develop the knowledge and ability to use the information to successfully manage an organization’s resources. (prereq: SE major and junior standing) MS-443 Labor Relations 3 0 3 This course provides students with a basic understanding of the history, purpose and development of the labor movement in the United States and describes the various labor organizations that have evolved, merged and become viable elements of organized labor. It also takes up the collective bargaining process, and issues and provisions of typical labor agreements are reviewed and interpreted. (prereq: MS 221; MS-331 is recommended) MS-444 Business and Government Relations 3 0 3 This course emphasizes economic and legal analysis of governmental policies toward business. A review of microeconomic theory is presented in the first section of the material, and such theory is then applied to analyze statutes in the following areas: consumer protection, environment, equal employment and the workplace. The rationale and procedures utilized in traditional economic regulation and deregulation are covered in detail. The course concludes with suggestions for reforming government regulation of business. (prereq: MS-221, MS-331) MS-446 Business Strategy Capstone 3 0 3 This course covers strategic planning and managing of businesses with an emphasis on integrating major concepts developed in earlier business and management courses. Case studies are used to ensure a practical appreciation of managing the entire enterprise, from the development of a mission statement to the implementation of programs to fulfill strategic objectives. (prereq: MS-4599 or FHL equivalent, senior standing) MS-447 Management Readings and Issues 3 0 3 In this course students study the basic functions of management, planning, organizing, actuating and controlling a seminar setting. Current concepts and controversies are investigated and discussed based on readings and reference materials in current journals. Attendance at management association meetings and professional lectures is encouraged. (prereq: junior standing) MS-448 Employment Law 3 0 3 This course provides students with a basic understanding of laws that affect or influence the personnel function within the firm. An overview of the following topics or laws is included: discrimination laws, fair labor standards act, equal pay act, regulation of employee benefit plans, employment-at-will doctrine, and unemployment and workers’ compensation laws. (prereq: MS-331 and junior standing) 330

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-449 Human Resource Management 3 0 3 This course looks at the activities that comprise the management of human resources in a business organization. The scope and intent of human resource practices are identified from a management perspective with emphasis on: ethics, equal employment opportunity, motivation, leadership, discipline, and the rights and responsibility of employer/employee. (prereq: junior standing) MS-450 Management Control Systems 3 0 3 This course uses case studies to analyze and evaluate methods of controlling and motivating responsibility centers. This includes cost, revenue, profit and investment centers. The following topics and their implications in responsibility accounting are also covered: motivational aspects and techniques for measuring performance of those responsible for budgets; return on investment and residual income; and transfer pricing techniques. (prereq: MS-358) MS-451 Personal Tax 3 0 3 Personal tax introduces federal taxation concepts. This user-based course teaches students successful tax preparation and planning techniques. Students are required to prepare taxes as part of a term project. (prereq: MS-331, MS-354, MS-356) MS-452 Investment and Portfolio Analysis 3 0 3 This course is designed to provide students with a detailed understanding of how to develop, manage and monitor an investment portfolio. Specific topics covered include a historic overview of investment returns, security analysis techniques, investment asset allocation, market efficiency, and modern portfolio theory. The course concludes with an explanation of optimal investment strategies given a particular individualâ€™s age and financial situation. MS-453 Personal Investments 3 0 3 This course investigates methods of obtaining, preserving and increasing personal assets. It covers financial planning, personal financial statements, budgeting, taxes, money management, various types of personal debt, housing decisions, various types of personal insurance, and introduction to stock, bond and real estate investing, and retirement and estate planning. (prereq: junior standing or consent of department chairman) MS-4544 Financial Management Policies 3 0 3 This course provides students with a survey of current accounting and financial management trends. Special topics include, but are not limited to, internal control systems, long-range planning, accounting information systems, emerging technologies, internal and external auditing, tax strategy and international finance. This course serves as a capstone for the financial management concentration. (prereq: MS-457, MS-459) MS-4545 Finance and Accounting 3 0 3 This course considers the perspective of financial accounting, operation and analysis in business and industry from the standpoint of professionals working at the middle or project level of a corporation. Background is presented in the following: elements of financial mechanics including time value, discounted cash flow and return on investment; financial statements, specifically income statements and balance sheets; financial concepts of depreciation, income taxes and cost of capital; and financial operations, in particular capital budgets. Practical applications also are provided relating to capital investment justification and new product evaluation. Consideration also is given to the specific operating controls used in business and how they relate to the day-to-day activities of the professional in marketing, production and engineering. (prereq: junior standing) MS-457 Financial Intermediaries 3 0 3 This course explains the specific functions of the different types of financial intermediaries, the markets in which they operate, and the value and attributes of the financial instruments they utilize. Intermediaries discussed include the Federal Reserve, depository institutions, insurance companies, mutual funds, pension funds and investment bankers. Expanding on topics introduced in previous finance courses, detail is provided on the structure and operation of the markets for, and the attributes and valuation of, different financial instruments including stocks, bonds and derivative securities. (prereq: MS-4599)

331

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-459 Intermediate Accounting 3 0 3 This course is a continuation of MS-354. The emphasis is on accounting concepts and their application to stockholder’s equity, working capital, inflation accounting and payroll accounting. The course also investigates methodology for accounting for partnerships, not-forprofit organizations, and company mergers and acquisitions. (prereq: MS-4599) MS-4599 Managerial Finance 3 0 3 This course applies the concepts covered in previous finance and accounting courses. Topics covered include valuation and rates of return, cost of capital, relevant costs in decision making, capital budgeting, adjusting for taxes and risk, make vs. buy vs. lease decisions, segment reporting, internal transfer pricing, external pricing of products and services, and investment banking. Students are required to complete a term project analyzing the desirability of a major capital acquisition under different financing alternatives. (prereq: MS-358) MS-4601

International Marketing and 3 0 3 Export Management The focus of this course is on the economic, political and cultural differences among nations as they influence marketing. Students will explore global marketing opportunities for organizations, laws and practices; develop abilities to identify and evaluate opportunities abroad; gain skills in gathering information and drawing conclusions; and be expected to develop an export marketing plan. (prereq: MS-327) MS-462 Technical Selling 3 0 3 In this course the work of the individual sales representative or sales engineer employed by the manufacturer, wholesaler or retailer is reviewed with emphasis on sales to and for industrial and business enterprises. Characteristics of the successful salesperson, making a good sales presentation, prospecting for leads, and time and territory management are all discussed in detail. Role playing of both the salesperson and the purchasing agent is an integral part of the learning process in this course. (prereq: MS-361) MS-4650 Branding and Brand Management 3 0 3 This course will provide an overview of branding and brand management with an emphasis on how to foster growth within companies. Specifically, brands will be considered assets that need to be developed and nurtured to fulfill the organization’s financial goals. While the value of brands has been informally acknowledged for many years, brand management frameworks are relatively new. Students will use various frameworks and tools to examine how to assess a brand’s value and how to leverage this value in various brand decisions. (prereq: MS-361 and junior standing) MS-467 Marketing Research 3 0 3 This course introduces students to the fundamentals of market research. It covers the major applications areas for market research, the design and application of basic research tools, the role of marketing research, and the measurement and evaluation tools used in market research. (prereq: MS-361 and junior standing) MS-468 Promotion and Advertising Strategies 3 0 3 This course provides an in-depth examination of the promotional alternatives available to firms’ advertising, personal sales, sales promotions and public relations. Promotional strategies are analyzed in view of the company’s marketing objectives, market conditions and the competitive environment. A basic objective of the course is to study the variables that will determine the optimal promotional “mix.” (prereq: MS-361 and junior standing) MS-469 Advanced Marketing Strategies 3 0 3 This capstone marketing course provides students with an opportunity to integrate the concepts and theories they have learned in previous courses and apply them to a wide variety of marketing problems. It involves a strategic marketing simulation that offers students an opportunity to make marketing decisions in a group setting and compete against other groups. The simulation provides a dynamic marketing environment for experiencing marketing planning, using marketing research, and designing and implementing marketing policies (targeting attractive market segments, developing product, pricing, distribution, and promotion strategies for those segments) within a limited budget. (prereq: MS-468 and senior standing) 332

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-4781 Cisco Certified Network Associate 3 0 3 This course offers a practical approach to Internet-working principles with an emphasis on Cisco Systems CCNA (Cisco Certified Network Associate) techniques and procedures. Bandwidth expanding devices such as switches and routers are discussed and observed firsthand. Wide area network technologies including T1/T3, Fractional T1, Frame Relay and Dialup are investigated from a performance perspective. Students gain significant hands-on familiarity with Cisco Internet-working devices including bridges, switches and routers. Students gain experience in labs designing and configuring routers and switches to overcome limitations in communication and compatibility. This course is designed for students familiar with networking technologies, multiple protocols and network administration. (prereq: MS-419 or MS-479) MS-479 CompTIA Network+ 2 2 3 This lab-based course replaces MS-4732 Networking Essentials. Developed by CompTIA, earning the Network+ Certification means that the candidate possesses the knowledge needed to configure and install the TCP/IP client. The Network+ exam covers a wide range of vendor and product neutral networking technologies that can also serve as a prerequisite for vendor-specific IT certifications. Novell accepts the Network+ certification exam in place of its Networking Technologies exam for all Certified Novell Engineer (CNE) candidates. Topics covered include indepth coverage of the OSI Model and the corresponding protocols, transmission media, protocols, bridging, switching hubs, routers, the 802.x standards and WAN technologies. MS-4795 CompTIA Security+ 2 2 3 The CompTIA Security+ vendor-neutral certification exam is the worldwide standard of competency for the foundation-level security practitioner. Companies that have contributed to the development of the Security+ Certification include IBM, Microsoft, Verisign, the FBI and the US Secret Service. This lab-based course covers general security topics such as access control and virus attacks, basics of cryptography, communication security for remote access, e-mail, wireless networks, operational and organizational security, and infrastructure security. (prereq: MS-479) MS-480 XML/XSL Programming 3 0 3 Extensible Markup Language (XML) and Extensible Stylesheet Language (XSL) have emerged as replacement languages for HTML technologies. This course covers core XML elements such as the Simple API for XML (SAX), the Document Object Model (DOM), XPath, XPointer and Formatting Objects Protocol (FOP). Open source parsers and translators for XML, such as Xerces and Xalan, are used in the programming assignments associated with this course. Application programs in XML are written using either the Java API for XML Processing (JAXP) or the ASP and C# APIs available in the Microsoft .NET platform. (prereq: MS-2775 or MS-3805) MS-4801 Project Management 3 0 3 This course is designed to expose students to the realities of project management through lecture, discussion and participation in a project meeting. It addresses the topics of people in projects, project teams and management styles, as well as the tools used to plan, track and control the outcome such as budgets, Gantt charts, work break down structures, critical path management and project wrap-ups. (prereq: junior standing) MS-481 C# Programming 2 2 3 Microsoftâ€™s strategy for new products is to tightly integrate data, resources, web services, documentation and content into a framework, commonly referred to as the .NET framework. The term .NET refers to network-enabled services that span platforms and systems. This course will present an introduction to the C# programming language in a Windows environment using the .NET framework. The CLR (Common Language Runtime) and the FCL (Framework Class Library) will be explored along with event handling and typical Windows controls. (prereq: MS- 3803 or MS-3832) MS-482 Active Server Pages (ASP.NET) 3 0 3 ASP.NET leverages the power of the Internet with new technologies such as the C# language, VB.NET and ADO.NET. ASP.NET allows the Internet developer to use a fine-grained approach to a Web page by utilizing individual code behind each Web control. This course will present an introduction to the Active Server Pages framework provided by Microsoftâ€™s .NET platform. This platform allows Web Services to be published and consumed by any user of Web-based devices. (prereq: MS-382 or MS-3821)

333

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-483 Database Management Systems 2 2 3 An introduction to the elements of database management systems (DBMS) is presented in this course. Several database models are covered (Hierarchical, Network and Relational), with the Relational database model emphasized as the most important of the three. Entity relationship diagrams are used to illustrate the concepts of database design, schemas and normalization. Relational algebra is used as a basis for the understanding of Structured Query Language (SQL). The use of relational databases as persistence layers for object-oriented languages is described through the presentation of database drivers and object-relational mapping mechanisms. (prereq: MS-382 or MS-2810) MS-4831 Advanced Database Management and SQL 3 0 3 This course covers topics in the advanced study of database systems, including: transaction management, performance enhancement, distributed databases, security models, the Web as a presentation layer to data, XML as a standard language for data exchange, data warehouses and data mining are explored in this course. The course examines basic Structured Query Language (SQL) concepts, including an overview of Microsoft SQL Server, review of tables, stored procedures, views, and functions, basic/intermediate-level SQL query syntax, and discussion of SQL query performance. Students will develop simple SQL applications that require parameters and utilize variables and temporary tables. (prereq: MS-483) MS-485 Telecommunications 3 0 3 An overview is provided for both voice and data communications. This course examines the industry, develops technical understanding of the operation of various devices, and provides background on the legislative, judicial and regulatory aspects of the Telecommunications industry. A special emphasis is placed on Local Area Networks (LANs) and Wide Area Networks (WANs). (prereq: junior standing) MS-486 Web Services 3 0 3 As XML is established as the data language for application integration, Web protocols are being established that automate the business-to-business transactions that take place over the Internet. This course covers the major protocols that support a service-oriented architecture on the web, such as the Simple Object Access Protocol (SOAP), the Universal Description, Discovery and Integration protocol (UDDI), the Web Services Description Language (WSDL), and other protocols that emerge as important for interoperability. (prereq: MS-480) MS-488 Wireless Programming 3 0 3 Wireless communications are becoming commonplace in business transactions. This course investigates the protocols, languages and environments that have emerged as important in wireless processing, such as the Wireless Access Protocol (WAP), the Wireless Markup Language (WML), the Binary Runtime Environment for Wireless (BREW), and the Java 2 Micro Edition (J2ME) implementations of CDC, CLDC, MIDP and other protocols important in wireless communications. (prereq: MS-480) MS-4951 German Practicum 9 0 9 This course is required at the end of the formal studies in the exchange program with Fachhochschule Lubeck, Lubeck, Germany. The practicum and its oral defense is the culmination of the degree work, when students must complete an extensive project/internship that entails a mixture of theory and application. The intent is for students to create an interesting and challenging project that can provide high value for an organization, where the outcome is a thesis and implementation of recommendations. Projects are typically at firms with international operations. (coreq: MS-4953 and consent of instructor) MS-4953 German Colloquium 3 0 3 This course is required at the end of the formal studies in the exchange program with Fachhochschule Lubeck, Lubeck, Germany. It is the complement of the German Practicum experience. Students are required to have an oral defense of their thesis, and at the discretion of the review committee, a defense of their academic studies. (coreq: MS-4951)

334

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MS-496 Business and Management Selected Studies 3 0 3 This course provides extended coverage of contemporary business and management topics that reflect the expertise and interest of Rader School of Business faculty. Selected studies generally align with concentrations available in business majors including marketing, international business, financial management, operations, and compute information systems. Topics are announced in the timetable of classes. This class is limited to 15 students. (prereq: consent of department chair) MS-4970 Practicum in Entrepreneurship 0 0 3 This course provides a structure from which a student engages in an entrepreneurial experience or project. Under the direction of a faculty advisor, the student is expected to develop a business plan and engage in plan execution. The business plan must feature innovation, new/improved product, new/improved service, or new/improved business process. Market viability, economic analysis, and financial impacts are expected to be demonstrated in course deliverables. (prereq: junior standing, consent of department chair) MS-4975 Business Management Solutions Project 0 10 3 The project-based course integrates the concepts covered in the BM or IB curricula. In this course, students work under the direction of a faculty advisor to manage a business project, including the design and implementation of an appropriate solution to an identified problem. The project may include a practicum experience. Students are expected to document and present the results of their project experience. (prereq: junior standing, consent of department chair) MS-4977 Management Information Systems Project 0 10 3 The project-based course integrates the concepts covered in the MIS curriculum. In this course, students work under the direction of a faculty advisor to manage an Information Systems project, including the design and implementation of an appropriate solution to an identified problem. The project may include a practicum experience. Students are expected to document and present the results of their project experience. (prereq: junior standing, consent of department chair) MS-498 Management Internship Experience 0 10 3 This course is designed to allow the junior or senior student to receive credit for valid work experience in the studentâ€™s area of concentration under the guidance of both a faculty member and a representative of a cooperating firm. The expectation is that the studentâ€™s work experience will extend and/or intensify the studentâ€™s understanding of a chosen field of study. Internship students are expected to take enough additional course work during their internship to continue to maintain full-time student status. (prereq: junior standing and consent of advisor) MS-499 Independent Study 1 3 3 This selection allows the student, with faculty guidance, to concentrate on an approved subject of special interest not covered in regularly scheduled courses. This may take the form of individual or small group supervised study, literature survey, analysis, design or laboratory study. (prereq: junior standing and approval of a faculty advisor and the program director) MT-1201 Basic Materials and Processes 3 0 3 This course is an introduction to a variety of industrially important materials and processing methods. This includes basic mechanical properties for metals, plastics and ceramics, and select examples of specific steels, aluminums and plastics. The basics of casting, forging, extrusion, sheet metal forming, powder metallurgy, plastic processes, injection molding and welding are covered. MT-151

Application of Mechanical 3 0 3 Engineering Technology This course is to familiarize the technical communications student with mechanical engineering technology job functions. This is demonstrated by exposing the student to a basic design project as well and through the use of actual assembly and detail drawings that have been used to manufacture a mechanical product. MT-200 Statics 4 0 4 This course involves the study of force systems acting on bodies in equilibrium. The course includes analysis of forces in trusses, frames, and machine components (2-D and 3-D). Additional topics include friction, location of centroids, and evaluation of area and mass moments of inertia. (prereq: MA-126, MA-127, PH-113)

335

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MT-205 Strength of Materials 4 0 4 This subject is concerned with the behavior of materials and structures under load. Topics of study include simple stress and strain; torsion; shear and bending moment; corresponding stresses in beam, beam deflection, combined stresses, Mohrâ€™s Circle; and column theory. (prereq: MT-200) MT-228 Machining Processes 2 2 3 This course deals with the various types of machining operations such as turning, milling, drilling, and reaming. The interpretation of information from engineering drawings into physical parts is also discussed. (prereq: MT-267) MT-2601 Mechanical Components 4 0 4 This course introduces the design process. Fundamentals of gears, shafts, bearings, belts and chains, and miscellaneous other hardware are studied. Selection of components from catalogs and handbooks is emphasized. (prereq: MT-205) MT-2611 Mechanisms 4 0 4 This class presents the fundamentals of position, velocity and acceleration analysis of mechanisms. Graphical methods are emphasized, and computer analysis is introduced. Other topics include mechanism synthesis and cam design. (prereq: MA-126, EG-125) MT-267 Dimensioning and Tolerancing 2 2 3 This course is an introduction to Geometric Dimensioning and Tolerancing (GD&T) standards as they apply to engineering drawings. Standard practices used to convey part geometry in particular dimensioning, part layout, material conditions, and tolerances as they pertain to the stack up of parts to include operation, form, runout, profile, and location tolerances. The inspection methods used to check part compliance to geometric dimensioning and tolerances specified will be covered. (prereq: EG-124, MA-126, MA-127) MT-303 Dynamics 3 0 3 This subject deals with the motions of particles and rigid bodies and the forces causing them. Topics include rectilinear and curvilinear motion, rotation and plane motion. Principles include Newtonâ€™s Laws, work and energy, conservation of energy, and impulse and momentum. (prereq: MA-225, MT-200) MT-3101 Fluid Mechanics 2 2 3 This is a course that examines the basic characteristics of fluids. Fundamental fluid properties (density, viscosity) are examined. Fluid statics focuses on the concept of fluid pressure and its variation. Fluid dynamics establishes the fluid flow energy equation, and examines the concept of losses. Applications to turbomachinery are presented. Laboratory experiments support the concepts introduced in the lecture. (prereq: MA-128, PH-113) MT-3111 Thermodynamics 4 0 4 This is an introduction to the fundamentals of thermodynamics for the student in mechanical engineering technology. The fundamentals of the first law, the second law and property relations for the pure substance with phase change and ideal gases are covered. (prereq: MA-128, PH-113) MT-3121 Heat Transfer 3 2 4 The course applies thermodynamic theory to refrigeration systems and internal combustion cycles. The course is also an introduction to the basic principles of heat transfer. The laboratory component of the course is designed to show application of basic principles of thermodynamics and heat transfer to various engineering systems. (prereq: MT-3101, MT-3111) MT-3301 Electromechanical Instrumentation 2 2 3 Measurement and control devices and their properties are examined. Electrical, mechanical, thermal, fluid flow and other measurement elements are described and tested. Static, dynamic and frequency response performance measures are applied to device operating characteristics. Analog signal conditioning methods are used. (prereq: ET-2550)

336

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MT-3401 Quality in Manufacturing 3 0 3 This course covers fundamental concepts in statistical process control, quality assurance, and design of experiments. It provides a brief overview of each of these topics and offers real-life examples designed to illustrate the appropriate use of each technique. (prereq: MA-262, MT-1201) MT-3601 Finite Element Analysis 3 2 4 This course is designed as an introduction to the finite element method and a continuation of the study of solid mechanics begun in MT-205. Lecture topics include steps in the finite element analysis process; element formulations of spring, truss and beam elements using direct equilibrium and energy methods; assembly of equations and application of loads and boundary conditions; interpretation of FEA results; static failure criteria; beam deflections; and pressure vessel theory. Lab exercises focus on various computer simulations. These exercises will include 1-, 2-, and 3-D truss analysis, thick-wall pressure vessels, 2-D plane stress plane strain analysis, 3-D solid analysis, 3-D design optimization using FEA, and orifice fluid flow. Students will use a commercial finite element program to simulate the experiments performed in the mechanical testing laboratory. (prereq: MT-205, MA-225) MT-3611 Solid Modeling 3 2 4 In this course, the use of solid modeling in engineering design will be explored. Students will learn to create part models, assemblies, and drawings using SolidWorks solid modeling software. Motion analysis with COSMOS/Motion software will also be introduced. Integration of solid modeling into the product design process will be emphasized. (prereq: EG-124) MT-3901 Computer Tools 2 2 3 This course introduces basic concepts of computer programming using MATLAB software. Topics include plotting, root finding, matrix operations, functions, and loops and logical branching. Also included are advanced features of EXCEL spreadsheets. (prereq: MA-126) MT-4001 Advanced Mechanics 3 0 3 This course includes advanced topics in mechanics of materials and dynamics. Mechanics of materials topics include use of discontinuity functions to find beam deflections, analysis of statically indeterminate structures, impact loading, static and fatigue failure theories, and design for fatigue of shafts and threaded fasteners. Dynamics topics include velocity and acceleration analysis of mechanisms utilizing complex number analysis of vector loop equations. (prereq: MT-205, MT-2601, MT-2611, MT-303) MT-4201 Industrial Materials 3 2 4 This course continues the study of industrially important materials and processing methods with an emphasis on the relationship between structure, properties and processing. Topics include strengthening mechanisms in metals, phase diagrams, heat treating, plastic properties, and failure modes for metals and plastics. The course includes a lab component for the verification of heat-treating steel, brass, aluminum, and for testing of mechanical properties. (prereq: CH-310, MT-1201, MT-205) MT-4301 Feedback Control Systems 3 2 4 This course introduces open-loop and closed-loop control systems by means of Laplacedomain block diagrams. Differential equations are used to write mathematical models of mechanical, electrical and other systems. Transient and steady-state responses of first-order and second-order systems are examined. Frequency response, including the development of Bode plots, is included. Feedback systems employing controllers are implemented in both laboratory sessions and computer simulations to study the performance of components and systems. (prereq: MA-226, MT-3301, MT-3901) MT-4401 Hardware in Manufacturing 3 2 4 This course is an overview of modern equipment and processes used in automated manufacturing. Investigations of various hardware topics are conducted including robotics, material handling systems, automatic storage and retrieval systems, and CNC equipment. Lean and agile manufacturing strategies are introduced. (prereq: senior standing) 337

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

MT-4501 Mechanics 3 0 3 This course is designed as an introduction to engineering mechanics for electrical engineering technology students. Topics include a brief review of vector algebra; properties of plane areas; equilibrium of particles and rigid bodies in a plane; velocity and acceleration analysis of simple mechanisms; Hookeâ€™s Law; and stresses in members subjected to axial, torsion and bending loads. (prereq: ET-3201, MA-225, PH-113) MT-4511 Thermodynamics and Heat Transfer 3 0 3 This course is a study of the fundamental concepts and laws of heat transfer, with supporting foundation in thermodynamics. Applications include heat sink design and cooling considerations in electrical and electronic systems. (prereq: CH-310, MA-227) MT-466 Tool Design 2 2 3 In this course students examine the design, construction, and performance characteristics of industrial manufacturing tooling. Design strategies based on work piece function, quality assurance measures, production capabilities, and human factors are explored. Students are required to produce all documentation necessary for the complete fabrication of a tool of their own design. (prereq: IE-423, MT-1201, MT-228) MT-4901 Capstone Project 2 0 3 Students work individually to investigate solutions to an engineering problem. Students are expected to formulate a scope of work, research relevant literature, and design and analyze possible solutions. A written report and oral presentation are required. (prereq: consent of program director and advisor needed before registration.) MT-498 Topics in Technology 3 0 3 This course allows students to obtain knowledge in emerging technologies. Subjects that can be studied are those that are not included in normal course work in either the mechanical or manufacturing engineering technology programs. The purpose is to promote the exploration of new and developing fields. (prereq: senior standing, consent of program director, consent of instructor) MT-499 Independent Study 0 0 3 This course allows the student, with faculty guidance, to concentrate on an approved subject of special interest not covered in regularly scheduled courses. This may take the form of individual or small group supervised study, literature study, analysis, design or laboratory study. (prereq: senior standing, approval of instructor, approval of program director) NS-1001 Drill and Information Briefing 0 0 0 Weekly formations focusing on Marine Corps and Navy drill, ceremonies, and inspections. Classroom instruction on special interest areas to the prospective naval officer such as financial responsibilities, career opportunities, leadership, maritime strategy, national security and sailing. Instruction and application of the fundamentals of unit organization, the chain of command, and how to properly wear and inspect uniforms. Designed to develop teamwork, leadership, management, and initiative. Offered every term. Required of all NROTC students. SNC/UNC grade assessment. NS-1009 Introduction to Naval Science 2 0 2 General introduction to seapower and the naval service. The instruction places particular emphasis on the mission, organization, regulations and broad warfare components of the Navy. Included is an overview of officer and enlisted rank and rating structures, procurement and recruitment, training and education, promotion and advancement, and retirement policies. Offered fall term. Non-NROTC students require consent of department chair. NS-1022 Sea Power and Maritime Affairs 1 3 0 3 Influence of U.S. Sea Power and Maritime Affairs on international economic and political relationships. Classroom discussions based on independent reading. Offered winter term. NonNROTC students require consent of department chair.

338

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

NS-1023 Sea Power and Maritime Affairs 2 3 0 3 Continuation of NS1022. Offered spring term. (prereq: NS-1022; non-NROTC students require consent of department chair) NS-1142 Naval Ship Systems 1 3 0 3 Ship design, construction, types and missions. Ship compartmentalization, interior communications, propulsion, auxiliary power and ship control systems. Elements of ship design for safe operation. Ship stability characteristics. Offered Fall term. Non-NROTC students require consent of department chair. NS-1151 Navigation and Naval Operations 1 3 0 3 Theory, principles and procedures of ship navigation and movements. Nautical astronomy, oceanographic factors, piloting, celestial navigation, celestial sights, sextants, charts, publications, electronic aids and inertial navigation systems. Rules of the nautical road, lights, signals, and navigational aids. Offered Winter term. Non-NROTC students require consent of department chair. NS-1152 Navigation and Naval Operations 2 3 0 3 Continuation of NS1151. Offered Spring term. (prereq: NS-1151 or consent of department chair) NS-1161 Evolution of the Art of War 3 0 3 Military principles and concepts throughout history. Tactical and strategic applications in selected engagements. Offered alternate fall terms. Non-NROTC students require consent of department chair. NS-1181 Amphibious Warfare 3 0 3 Application of amphibious doctrine to battles throughout history. Offered alternate fall terms. Non-NROTC students require consent of department chair. NS-1185 Leadership and Management 3 0 3 Stress on experiential approach to leadership and management with military emphasis. Motivation and communication theory and practice. Group dynamics and decision making techniques. Lines of control and organizational structure. Case studies, experiential exercises and situational problems will be used. Offered Fall term. Non-NROTC students require consent of department chair. NS-2152 Navigation and Naval Operations 2 3 0 3 Theory, principles and procedures of ship navigation, movements and employment. Tactical formations and dispositions, relative motion and maneuvering board solutions. Analysis of tactical plots for force effectiveness. Offered winter term. Non-NROTC students require consent of department chair. NS-2153 Navigation and Naval Operations 3 3 0 3 Continuation of NS2152. Offered spring term. (prereq: NS-1151 and NS-2152; non-NROTC students require consent of department chair) NS-2162 Naval Ship Systems 2 3 0 3 Theory and principles of operation of naval weapons systems including types, capabilities, and limitations. Theory of target detection, acquisition, identification and tracking. Principles of trajectories. Offered winter term. (prereq: NS-1142; non-NROTC students require consent of department chair) NS-2163 Naval Ship Systems 3 3 0 3 Theory and principles of operation of naval weapons systems including types, capabilities, and limitations. Theory of target detection, acquisition, identification and tracking. Principles of trajectories. Offered spring term. (prereq: NS-1142 and NS-2162; non-NROTC students require consent of department chair)

339

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

NS-2186

Leadership and Core-Value-Based 3 0 3 Decision-Making 1 Application of techniques and theories learned in NS-1185. Practical application of sound leadership and ethics to Navy situations. Investigation of levels of ethical decision-making: legal, constitutional , utilitarian, divine. Examination of role of honor, courage and commitment in leadership. Offered winter term. (prereq: NS-1185; non-NROTC students require consent of department chair) NS-2187

Leadership and Core-Value-Based 3 0 3 Decision-Making 2 Continuation of NS-2186. Offered spring term. (prereq: NS-1185 and NS-2186; non-NROTC students require consent of department chair) NS-2964

Practicum in U.S. Marine Corps 4 0 4 Leadership and Management Provides instruction and practical application of leadership and management techniques used in the Marine Corps and Naval Service. The course is held at the Officer Candidate School at Quantico, Virginia. S/U grade assessment. (prereq: junior standing in USMC option.) NS-4995 Independent Study in Naval Sciences 3 0 3 Independent study of special topics in Military Science under faculty supervision. Topics selected by student/faculty conference. Course can be taken for 1-3 credits. (prereq: consent of department chair) NU-102 Orientation to Nursing 0 2 1 This course is designed to provide information and orientation to first-year nursing students. Course content includes development of academic, personal, and interpersonal skills that will help the student succeed in college and develop a sense of campus involvement. Topics covered include: academic policies and procedures, time management, study skills, taking examinations, and nursing career opportunities. Emphasis is placed on identifying and understanding the college resources available to students to aid them in obtaining information relevant to their academic career as well as their personal goals. Practice and feedback are given to enhance skills in oral presentation, written expression, classroom discussion and group participation. NU-200 History and Theories of Nursing 3 0 3 This course is designed to enable the beginning student to examine nursing from a historical as well as present day perspective. The concepts of nursing, person, environment and health are examined. Conceptual frameworks, nursing theories, trends and issues and professional nursing practice are explored. NU-2010 Health Assessment of Individual 3 6 5 This course provides the student with the knowledge and skills necessary to perform a health assessment of individual clients of all age. Emphasis is placed on taking a comprehensive health history and physical examination and use of appropriate nursing diagnoses. Opportunities are provided to apply assessment skills in a variety of settings. Caring and transcultural concepts are integrated. (prereq: SS-462, TC-452, NU-210, BI-172 C grade, BI-273 C grade, BI-274 C grade, and CH-2260 or CH-223; coreq: BI-274, NU-2020, NU-290, NU-2810) NU-2020 Health Assessment of Family and Community 2 3 3 The emphasis in this course is assessment of the environment of the individual client. Opportunities are afforded for community assessment in an urban and/or rural setting as well as assessment of the family at various life stages in the community. (prereq: SS-462, TC-452, NU-210, BI-172 C grade, BI-273 C grade, BI-274 C grade, and CH-2260 or CH-223; coreq: BI-274, NU-2020, NU-290, NU-2810)

340

NU-210 Concepts of Professional Nursing Practice 3 0 3 This course prepares nursing students for the role of the professional registered nurse. Emphasis is placed on understanding professional nursing practice in the context of its social contract with society. Students are also introduced to the nursing process and Gordonâ€™s Functional Health Patterns and apply them in the development of a behavioral change project to promote their own health. (prereq: EN-131; coreq: SS-462)

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

NU-220 Health Care Terminology 2 0 2 Emphasis is on language acquisition and comprehension related to health care problems. NU-2520

Primary Dynamics of Professional 4 9 7 Nursing Care This course introduces the student to the application of basic concepts appropriate to professional nursing care. These concepts include the nursing process, critical thinking, role expectations and health promotion-health maintenance across the life span for clients in variety of settings. The concepts of illness prevention and health restoration are also introduced in this course. (prereq: BI-256, CH-223 or CH-2260, NU-2010, NU-2020, NU-2810, NU-290 BI-2810 C grade; coreq: NU-382, NU-391) NU-260 Nutrition 2 0 2 This course introduces nutritional concepts as they relate to human health and fitness. Topics include a basic introduction to nutrition covering carbohydrates, lipids, proteins, vitamins and minerals. Further topics include "what is a healthy diet," metabolism, energy balance, and the impact of nutrition on health and disease. (prereq: BI-102, CH-223 or CH-2260) NU-2810 Pharmacology I 3 0 3 This course introduces the students to the effects of drugs on physiological systems. Topics include general principles of pharmacology, cancer chemotherapy, chemotherapy of infectious agents, modulators of immune function, drugs affecting fluid and electrolyte balance, peripheral nervous system pharmacology, cardiovascular pharmacology and respiratory pharmacology. (prereq: BI-102, BI-172, BI-273, BI-274) NU-290 Pathophysiology I 4 0 4 This course provides students with an understanding of the disease process, including etiologics, manifestations, diagnoses and treatment modalities. Topics covered include central concepts of pathophysiology, alterations in cellular function, alterations in host defense mechanisms, cardiovascular alterations, and alterations in respiratory functions. Further topics include alterations in fluid, electrolyte and acid-base homeostasis, and imbalances. (prereq: BI-102, BI-172, BI-273, BI-274) NU-300 Transcultural Nursing 3 0 3 Enables student to conceptualize cultural diversity as a basic component of health care with implications for sensitivity and respect in dealing with clients across the health care spectrum. Emphasis is placed on applications of culture to health beliefs and practices. NU-310 Basic ECG Interpretation 2 0 2 The ECG interpretation course focuses on the essential information needed to interpret basic dysrhythmias and understanding of its significance. A description of dysrhythmia is provided with possible client signs and symptoms related to the dysrhythmia. Current pharamacology used in treatment of the dysrhythmia is discussed. Simulation technology is incorporated into course providing students with real time rhythm identification and treatment. (prereq: BI-273, BI-382) NU-3100

Principles of Electrocardiograph (ECG) 3 0 3 Interpretation and Monitoring The ECG interpretation and monitoring course focuses on the essential information needed to interpret cardiac dysrhythmias. ECG recognition skills are developed and associated with client signs and symptoms. Technology used in monitoring cardiac rhythms is explored from design and user perspective. Current pharmacology for treatment of cardiac dysrhythmias is addressed. Simulation technology is incorporated into course providing students with real time rhythm identification and treatment. (prereq: consent of instructor) NU-330

Nursing Care of Clients with 3 12 7 Episodic Health Challenges I The focus of this course is on the nursing concepts necessary to provide holistic care across the life span. Students are provided with opportunities to expand their abilities in critical thinking and decision making in multicultural clinical settings. This course is designed to integrate use of the nursing process in the planning, implementing and evaluation of care. (prereq: CH-223 or CH-2260, NU-260, NU-2520, NU-391, NU-382; coreq: HU-332)

341

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

NU-331

Nursing Care of Clients with 3 12 7 Episodic Health Challenges II The focus of this course is a continuation of the nursing concepts necessary to provide holistic care across the life span. Students continue to explore all dimensions of health with an emphasis on developing collaborative skills. In this course, students expand their abilities to integrate the nursing process with individuals and families who are facing episodic health challenges. (prereq: NU-330) NU-332 Introduction to Clinical Aromatherapy 2 0 2 This course introduces the student to the safe use of clinical aromatherapy within the scope of nursing practice. Emphasis on the nursing process, critical thinking, and therapeutic communication is included as part of the overall approach to safe and effective clinical use of essential oils. A project evaluating the effectiveness of aromatherapy for clinical uses will cap the course. (prereq: NU-2010, consent of instructor) NU-3320

Complementary and Integrative 3 0 3 Health Therapies This interdisciplinary course examines the principles, practices, use and outcomes of complementary and integrative health therapies. The course will provide evidence-based complementary tools for health care providers of the field, review selected systems of alternative healing and specific healing modalities that are used in the general population, while incorporating critical thinking, and therapeutic communication within the scope of professional practice. (prereq: NU-2010, consent of instructor) NU-333 Contemporary Issues in Nursing 2 0 2 Current thought, issues and research pertinent to the changing health care environment. Students may retake with topic change. (prereq: NU-331) NU-340

Nursing Care of Clients with 3 12 7 Chronic Health Challenges The emphasis of this course is on application of the nursing process to clients of all ages who are experiencing continuing challenges to their health status. Emphasis is placed on communication skills with these clients and their families in a variety of settings. (prereq: NU-331, NU-390) NU-360 Nursing Care of the Community 3 3 4 This course focuses on the community as client. Emphasis is placed on application of the nursing process to the community and includes political activism as an important aspect of nursing interventions for the community. (prereq: NU-331, NU-390) NU-382 Pharmacology II 2 0 2 This course introduces students to the effects of drugs on biologic systems. Topics covered include central nervous system drugs, drugs for endocrine disorders, drugs for bone and joint disorders, gastrointestinal drugs, and drugs affecting womenâ€™s health. (prereq: NU-2810) NU-390 Nursing Research 3 0 3 This course introduces the student to the concepts of the research process and its application to nursing practice. Emphasis is placed on students becoming knowledgeable consumers of research as they expand their nursing practice. (prereq: MA-315, NU-330) NU-391 Pathophysiology II 4 0 4 This course provides a continuation of knowledge in the understanding of the disease process, including etiologie, manifestations, diagnoses and treatment modalities. Topics covered include alterations in the functions of the genitourinary system, gastrointestinal system, endocrine functions and metabolism. Further topics include alterations in neural function, neuropsychological function, musculoskeletal functions, and integumentary system. (prereq: NU-290)

342

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

NU-399

A Comparative Study: Nursing in the 3 0 3 United Kingdom and the United States The course is designed to stimulate studentsâ€™ critical thinking in relation to nursing in the United Kingdom and the United States. Students will be challenged to examine historical events and analyze the implications for present day practice. Students will compare similarities and differences in nursing between the two countries. A trip to England is part of the course experience and opportunities to interact with nurses from the United Kingdom will be provided. NU-4600

Nursing Care of Clients with 3 0 3 Mental Health Challenges Pattern manifestations of mental health are the focus of this course. The student is offered the opportunity to develop a knowledge base, to develop competent communications skills and to explore the therapeutic use of self. Students participate in, observe and evaluate their clinical nursing, promoting mental health. The student explores aspects of individual traits and states, diverse mental health environments, transculturalism, legal and ethical issues, mental health research and current trends in mental health. (prereq: SS-466, NU-360) NU-4700

Nursing Care of Clients with 3 12 7 Complex Chronic Health Challenges This course expands the application of the nursing process from clients with continuing health challenges to clients with multiple chronic nursing diagnoses. Emphasis is placed on nursing interventions that provide palliative care for the dying client as well as restorative care for the client with multiple health challenges. (prereq: NU-340; coreq: NU-4600) NU-4710

Nursing Care of Clients with Complex 4 12 8 Episodic Health Challenges This course provides the student with the opportunity to apply theory and research findings to the care of critically ill persons across the lifespan. Using critical thinking skills, the student interprets changing health patterns in a complex technological setting and facilitates balance for the person and his/her environment. (prereq: NU-4700, NU-4600) NU-485 Nursing Clinical Elective 2 12 6 This course is designed to provide the student with the ability to integrate application of nursing concepts under the mentorship of a preceptor. In consultation with faculty, students select a clinical area of practice that will assist them in meeting their learning objectives. (prereq: NU-4600, NU-4710) NU-486 Synthesis of Nursing Care 4 0 4 This course is designed to assist the student in synthesizing the concepts of nursing care for professional nursing practice. The student is expected to exhibit critical thinking skills, independent decision making and judgment. (prereq: NU-4710) NU-4960

Nursing Leadership and 1 3 2 Professional Orientation I This is the first of a two-part, consecutive leadership series designed to assist students in the transition from college life to professional life. Theories and principles of professional practice, leadership, and change are applied. Theories and principles of change, collaboration and organization are applied to maximize optimum health for people and their environment. A Professional Practice Project is a cumulative project that spans the two courses. (prereq: senior clinical placement) NU-4970

Nursing Leadership and 2 3 3 Professional Orientation II This is the second of the 2 part, consecutive leadership series designed to assist students in the transition from college life to professional life. Theories and principles of professional practice, leadership, and change are applied. Theories and principles of change, collaboration and organization are applied to maximize optimum health for people and their environment. The Professional Practice Project is completed in this course. (prereq: NU-4960) 343

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

NU-499 Independent Study 1 0 3 This selection allows the student, with faculty guidance, to concentrate on an approved subject of special interest not covered in regularly scheduled courses. This may take the form of individual or small group supervised study, literature survey, analysis, design or laboratory study. (prereq: junior standing, and up to three credits may be taken with approval, of program director or department chair) OR-100 Freshman Orientation 1 0 0 This course is designed to provide information and orientation to members of the freshman class. The lecture series greatly aids first-quarter students in successfully adjusting to their individual academic programs and college life in general. Emphasis is placed on how and where to obtain help, academic policies and procedures, career choices, the mentoring program, learning and teaching styles, and organization of the curricula. Open discussion and a question/answer period follows each presentation. OR-100H Honors Freshman Orientation 1 0 0 This course is designed to provide information and orientation to members of the University Scholars Program. The lecture series greatly aids first-quarter students in successfully adjusting to their individual academic programs and college life in general. Emphasis is placed on how and where to obtain help, academic policies and procedures, career choices, the mentoring program, learning and teaching styles, and organization of the curricula. Open discussion and a question/answer period follow each presentation. OR-2000 Leadership and Teamwork 0 2 1 This course is designed to give students a good working knowledge of multiple aspects of managerial processes such as motivation and communication patterns, group processes, leadership approaches, use of power, development of trust, effective group facilitation, negotiation and persuasion, conflict resolution, effective change, and ethics. Current trends and issues such as globalization and diversity are emphasized throughout the course. Emphasis is given not only to the theoretical context, but the practical consequences of leadership and teamwork with special emphasis placed upon servant-leadership. OR-3000 Applied Servant-Leadership 0 2 1 This course is designed to give students a comprehensive knowledge of the nature, styles, and skills of Servant-Leadership, utilizing historic and contemporary models and emphasizing the moral roots of responsible leadership. Students will participate in a field experience in the greater Milwaukee community, combined with reflection and discussion in small groups on local, regional, national, and global issues in Servant-Leadership. Current trends and challenges in diversity and social and civic awareness are emphasized throughout the course. Special focus is given to the practical consequences of Servant-Leadership and teamwork with special prominence placed upon consensus building, teamwork, conflict resolution, empathic listening, and positive change. OR-301 Transfer Student Orientation 1 0 0 This course is designed to provide information and orientation to students transferring into MSOE from another institution. The lecture series is intended to help transfer students understand and adapt to established practices and policies and effectively adjust to their new educational environment. Among topics covered are transfer credit, academic policies and procedures, career options and leadership, registration procedures, and course prerequisites and scheduling. Only students transferring into MSOE from another institution are required to schedule this course. OR-307S Transfer Orientation Seminar 1 0 0 This course serves as an introduction to MSOE for transfer students who have completed at least 24 semester credits or 36 quarter credits at another college or university. The course usually is held on one Saturday early in the quarter. Topics that are typically covered include an overview of specific transfer programs, the MSOE computer system, the library, MSOE policies and procedures, campus resources, critical thinking, and multicultural diversity. (prereq: consent of an academic program advisor) 344

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

OR-402 Professional Guidance 1 0 1 The objective of this course is to assist students in the transition from college life to professional life. The course provides students with techniques for and experiences in conducting a successful job search, preparing letters of application and resumes, and preparing for job interviews. It also examines the concepts of success, lifelong learning, and professional responsibilities. (prereq: junior standing) PH-090 Preparations for Physics 3 3 4 This is a prerequisite course to be taken by students who have not had one year of high school physics or equivalent, with a grade of B or better. Topics covered include units, technical math, vectors, forces and Newton’s Laws, one-dimensional motion, work, energy and momentum. Laboratory experiments compliment the lecture material and provide additional work in basic experimental techniques such as uncertainty, graphical analysis, and report writing skills. Additional topics may include rotational motion, torques, reflection, refraction or optical devices. This is a prerequisite course, and does not meet the graduation requirement for any program at MSOE. (coreq: MA-126) PH-110 Physics of Mechanics 3 2 4 The purpose of this subject is to provide the four-year engineering student with the basic principles of mechanics. Topics covered include: linear and rotational kinematics, Newton’s Laws of motion, work and energy, and momentum. The mathematical level of the course includes the use of vector algebra and elementary applications of differential and integral calculus. The laboratory sessions correlate theory with experimental results. Emphasis is placed upon measurement precision, experimental technique, analysis of data and report writing. Not for credit for students who have credit for PH-113, PH-130 or PT-110. (prereq: one year of high school physics with a grade of B or better, or PH-090; coreq: MA-137) PH-113 College Physics I 3 2 4 This is an introductory presentation of the fundamental concepts and principles of mechanics and heat. Vectors, motion with constant acceleration, Newton’s Laws, work, energy and momentum are discussed in the mechanics portion of the course. Temperature, thermal expansion, heat capacity and heat transfer mechanisms are discussed in the heat portion. The associated laboratory correlates theory with experimental results and gives students direct experience with some of the concepts presented in the lectures. The laboratory also provides an opportunity for students to become familiar with laboratory instruments, and techniques, and report writing. This course replaces PT-110. Not for credit for students who have credit for PH-110, PH-130 or PT-110. Designated as laptop course. (prereq: MA-127) PH-123 College Physics II 3 2 4 The first section of this course covers the principles of electricity and magnetism. Specific topics covered include Coulomb’s law, electric fields, electric potential, capacitance, simple DC circuits and Ohm’s law, forces on charged particles in magnetic fields, and magnetic fields due to electric currents. The last section of this course covers the principles of geometric and physical optics. The laws of reflection and refraction are discussed and these laws are used to study the ways in which mirrors and lenses can be used to form images. Interference is discussed and applied to double slits and thin films. The associated laboratory is designed to give students direct experience with the concepts presented in lecture. The laboratory also serves to familiarize students with laboratory techniques and equipment. This course replaces PT-220. Not for credit for students who have credit for PH-230 or PT-220. Designated as laptop a course. (prereq: PH-113) PH-130 Applications of Physics 3 2 4 This course is intended to provide students in nontechnical fields with the fundamentals of physics. Topics include mechanics, energy, fluids, thermodynamics, optics, and nuclear physics. Laboratory experiments complement the lecture material and provide work on report writing skills. Not for credit for students who have credit in PH-2010, PH-110, PH-113 or PT-110. (coreq: MA-127) 345

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

PH-199 Project in Physics 0 0 0 Students are given the opportunity to pursue an approved subject not covered in regularly scheduled course work. This may take the form of individual or small group studies, literature surveys, and laboratory or research projects. Weekly meetings with the course advisor are required. A final report to be filed in the Physics and Chemistry Department may also be required. This course is offered to students with freshman or sophomore standing and does not meet the requirements for the Minor in Physics. Credit in this course will be determined after consultation with the instructor. Students with junior or senior standing should request PH-499. (prereq: consent of the course advisor, and the Physics and Chemistry Department chair) PH-2010 Physics I - Mechanics 3 3 4 This course is a calculus based introduction to mechanics. Topics include: linear and rotational kinematics and dynamics, work, energy, and momentum. The mathematical level of this course includes the use of vector algebra and elementary applications of differential and integral calculus. The laboratory part of the course emphasizes measurement precision, experimental technique, analysis of data, and report writing. Together with Physics II and Physics III (PH-2020 and PH-2030), this course provides one year of university level physics. No more than four credits can be counted in any combination with PH-110, PH-113, PH-130, or PT-110. (prereq: one year of high school physics with a grade of B or PH-090, MA-136; coreq: MA-137, CH-200) PH-2020 Physics II - Electromagnetism and Optics 3 3 4 This course is the calculus based continuation of PH-2010. The purpose of this subject is to acquaint the students with the fundamental laws of electricity, magnetism, and optics. Particular topics include: electrostatic vector fields, scalar potential, capacitance and dielectrics, energy and force in electrostatic systems, current, resistance and electromotive force, magnetic fields and forces, electromagnetic waves, laws of reflection and refraction, geometrical optics and image formation, and interference and diffraction. (prereq: CH-200, PH-2010 or PH 110, MA-137 or MA 137A; coreq: MA-231) PH-2030 Physics III - Thermodynamics and 3 3 4 Quantum Physics This is a continuation of Physics I and Physics II (PH-2010 and PH-2020). Topics covered include: the kinetic theory of gasses, the microscopic description of heat capacity and heat transfer, the first and second laws of thermodynamics, the quantum description of atoms, molecules and solids, and selected topics in special relativity and nuclear physics. Together with Physics I and Physics II (PH-2010 and PH-2020), this course provides one year of comprehensive university level physics. This course repeats one credit of PH-220 and three credits of PH-250. (prereq: PH-2020, MA-137; coreq: MA-235) PH-220 Physics of Heat, Wave Motion and Optics 3 3 4 This course covers the fundamental concepts and principles of heat, wave motion and optics. The course is divided into three parts. The first section covers temperature and its measurement, heat and its relationship to work, the basic principles of thermodynamics and heat transfer, and an introduction to the kinetic theory of gases. The second section introduces simple harmonic motion, resonance and linear waves, which include elastic vibrations and sound waves. The Doppler effect and beat phenomena are also studied. The third section extends the ideas of waves and superposition into the electromagnetic spectrum, leading to the laws of reflection and refraction, geometrical optics and image formation, interference and diffraction. Laboratory sessions give students an opportunity to observe and apply the theoretical ideas covered in lecture. (prereq: PH-110, MA-137) PH-230 Physics of Electricity and Magnetism 3 3 4 The purpose of this subject is to acquaint engineering students with the fundamental laws and physical theories of electricity and magnetism. Particular topics include electrostatic vector fields, scalar potential, capacitance and dielectrics, energy and force in electrostatic systems, current, resistance and electromotive force, and magnetic fields and forces. The associated laboratory correlates theory with experimental investigations. Not for credit for students who have credit for PH-123 or PT-220. (prereq: PH-110, MA-137) 346

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

PH-250 Modern Physics 3 3 4 This subject is intended for four-year engineering students. The material is introduced by pointing out the failure of classical physics to explain new physical phenomena that have been observed. Experiments that are basic to the understanding and development of modern physics are discussed in detail. The results of these experiments are used in explaining and understanding the atom, which is the basic component of matter. The quantum nature of electromagnetic radiation is also studied in detail. An understanding of the laws, concepts and theories of modern physics is essential for an understanding of the structure of matter and for an understanding of the fundamental principles of semiconductor electronics. Topics covered include the special theory of relativity, theory for a one-electron atom, x-ray spectra, a study of the subatomic particles, assemblies of particles, blackbody radiation, photoelectric effect, Compton effect, pair production and quantum mechanics, including solutions to the Schroedinger equation for simple systems. In integrated laboratory sessions, students are introduced to activity of radioactive materials and dose received from radioactive materials, nuclear counting techniques, gamma-ray spectrometry and pulse-height analysis, x-ray diffraction, emission and spectra, as well as optical spectra of gasses. This course cannot be taken for credit by students who have credit for PH-361. (prereq: PH-220, PH-230, MA-235) PH-320 Lasers and Applications 2 2 3 This course prepares students for understanding the practical applications of lasers in industry. The course begins with a brief review of the principles of optics and a discussion of atomic structure and energy levels as related to lasers. Discussions of low power lasers include their application to telecommunications, reading, writing, alignment and holography. High-power laser applications including cutting, welding, drilling, and marking are discussed. Laboratory sessions give students hands-on experience in spectroscopy, laser safety, laser beam properties and laser applications. (prereq: PH-123 or PH-2020, MA-137 or MA-225) PH-322 Introduction to Optics and Photonics 2 2 3 This course is designed to help students gain an understanding of the fundamental principles of optics and photonics. Topics covered include the properties and operating principles of sources and detectors of light, the principles of reflection, refraction, image formation, image aberrations, absorption, scattering, fiber optic communications, polarization, diffraction, interference, lasers, and holography. Applications of the principles of optics and photonics are emphasized with examples that range from optics in nature to optics and photonics in science and engineering. In the associated laboratory section, students have opportunities to gain hands-on experience in the MSOE Applied Optics Laboratory and the Photonics and Sensors Laboratory. (prereq: PH-123 or PH-220 and PH-230) PH-324

Fiber Optics and Fiber Optic Sensors

This course provides a theoretical and experimental foundation of fiber optics, fiber optic communication, optical sources, detectors and fiber optic sensors. Topics include electromagnetic propagation, reflection and refraction, optical modes, dispersion, scattering, carrier loss, optical time-domain reflectometry, light-emitting and laser diodes, photonic crystals and band-gap fibers. Techniques and applications for fiber optic communication systems will be studied, including bit rate and bandwidth, wavelength-division multiplexing, filters, optical switching and coupling, and optical amplifiers. (prereq: PH-123 or PH-2020 and PH-2030 or PH- 220 and PH-230)

PH-325 Acoustics and Illumination 3 0 3 The first part of this course covers the science of generation, propagation and reception of sound. Included are vibration of strings and membranes, acoustic radiation, transmission, diffraction and absorption coefficients, as well as room acoustics and the psychological effects of sound, music and noise. The second part of this course acquaints students with the basic physics of light and illumination. Included are lectures on photometry and photometric units, interaction of visible light and matter, color and lighting calculations for room interiors. (prereq: PH-220) 347

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

PH-341 Introduction to Astronomy and Astrophysics 3 0 3 This is an introductory survey covering topics that range from a discussion of the observations and experiments of the earliest astronomers to a consideration of the most recent developments involving black holes, the detection of gravitational waves, and the search for extrasolar planets. Broad topic areas include: the Earth, the solar system, lives of stars, and galaxies. Some time is spent discussing observational instruments, including a discussion of the procedure for constructing a reflecting telescope. A Maksutov-Cassegrain five-inch reflecting telescope is available for student use off campus. (prereq: PH-113 or PH-110 or PH-2020) PH-342 Relativity and Cosmology 3 0 3 This course is a survey of topics related to relativity and cosmology: the 1905 Special Theory of Relativity, the 1916 General Theory of Relativity, and Big Bang Cosmology. Lectures will highlight the concepts and present some detailed examples. Discussions will seek to reconcile the paradoxes and conundrums that befuddle these topics. Homework involves reading a few inexpensive paperbacks aimed at understanding the essence of these concepts, working a few basic problems and preparing a final report. (prereq: junior standing or consent of instructor) PH-352 Quantum Physics 3 0 3 This is an elective course for students who want to further their knowledge of quantum physics and its applications. Topics include atomic, molecular, and solid state solutions to the nonrelativistic Schrodinger equation, and discussions of macroscopic quantum phenomena, including superfluidity, superconductivity, and magnetism. This is followed by an overview of relativistic quantum mechanics, Feynman diagrams, elementary particles and review of the Standard model. (prereq: PH-250 or consent of instructor) PH-354 Nuclear Power, Applications and Safety 3 0 3 This subject serves as an introduction to the physics of the use of nuclear power. It examines the nature of radioactivity and protection from it. It deals with the uses of radioactive isotopes in medicine and science. It examines the release, control and utilization of energy from fission and fusion reactions. (prereq: consent of instructor or PH-2030) PH-360 Physics of Semiconductor Materials 3 3 4 and Devices This subject provides students with the fundamentals of semiconductor physics. The electron energy band theory is developed and applied to the p-n junction to explain its behavior. Fundamental aspects of the operation of the p-n junction are used to explain the operation of several semiconductor devices including rectifier diodes, zener diodes, solar cells, light-emitting diodes, bipolar junction transistors, unijunction transistors, and field-effect transistors. Laboratory experiments illustrate fundamental properties of semiconductor materials and with the characteristics and properties of a variety of semiconductor devices. This course cannot be taken for credit by students who have credit for PH-361. (prereq: PH-250, PH-2030) PH-361

Physics of Materials

This course begins with an in-depth discussion of the structure of the atom and the nucleus, as well as other quantum physics concepts. Material properties, such as hardness and ductility, are explained by examining the crystal structure of materials. The band structure of materials is discussed, and used to explain the wide range of electrical conductivities and optical absorption properties of conducting, semiconducting, insulating and superconducting materials. The magnetic properties of materials are also examined in some detail. The laboratory portion of the course is designed to give the student hands-on experience in determining various fundamental properties of materials, such as atomic and crystal structure, optical emission and absorption, electrical conductivity, x-ray emission and absorption and nuclear decay. This course cannot be taken for credit by students who have credit for PH-250. This course is designated as a laptop course. (prereq: CH-100 or CH-200 or CH-310, PH-123 or ET-3201, MA-128 or MA-129, ET-2550 or equivalent)

348

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

PH-3710 Introduction to Biophysics 3 0 3 This course provides grounding in the physical principles that underlie the properties of biomolecules and phenomena in cell biology. This course surveys three categories of biophysics: biomolecular structures, biophysical techniques, and biophysical mechanisms. The range of topics covers an introduction to biorheology, Brownian motion and molecular transactions in macromolecules, physics of biopolymers, chemical kinetics and molecular manipulation techniques, membrane channels and pumps and molecular motors. (prereq: CH-223, PH-2030) PH-401 Topics in Physics 0 0 3 This course covers current topics in physics that are not covered in other classes. Topics and structure, as well as credits, may vary. Faculty areas of expertise and possible topics for this course are listed on the Physics and Chemistry Department pages in the undergraduate catalog and on the Web. Groups of students interested in a particular topic should contact the appropriate faculty member well in advance of registration for the quarter. Credit in this course will be determined after consultation with the instructor. (prereq: consent of instructor.) PH-499 Independent Study 1 0 3 Students are given the opportunity to pursue an approved subject not covered in regularly scheduled course work. This may take the form of individual or small group studies, literature surveys, and laboratory or research projects. Weekly meetings with the course advisor are required. A final report to be filed in the Physics and Chemistry Department may also be required. This course is offered to students with junior or senior standing. Students with freshman or sophomore standing should request PH-199. Up to three credits in PH-499 may be counted towards the Minor in Physics. (prereq: consent of the course advisor, and the Physics and Chemistry Department chair) SC-308 Environmental Science 3 0 3 The purpose of this course is to provide students with an increased understanding of impact to the global environment (atmosphere, hydrosphere, biosphere) from human activities, including those due to the appropriation of land for food, housing, materials and transportation, and the use of energy. The course requires engineering students to consider the environmental impacts of engineering choices, in addition to performance and cost, when making design decisions. (prereq: junior standing) SC-310 Nanoscience and Nanotechnology 3 0 3 This course will provide students with the basic scientific concepts in physics, chemistry, materials science and biology that are critical to understanding nanoscale science and nanotechnology. The significance of quantum, electrical, physical and magnetic properties at the nanoscale will be contrasted with these properties at the macro- and microscale. The tools used to manipulate atoms, molecules, and materials and the students synthetic strategies for producing nanoscale materials and devices will be discussed. Current applications of nanoscale science and nanotechnology will be highlighted with each physical, chemical, biological and materials-based concept explored. (prereq: CH-200 or CH 2100H, MA-136 or MA 136A) SC-370 Geology and Geophysics 3 0 3 This course is a survey of geology and geophysics. It provides a description of how modern science can be used to probe the interior of the Earth, and how volcanoes, earthquakes and glaciers have changed and are changing the face of the Earth. A field trip to the Northern Kettle Morraine to study glacial features is included. (prereq: junior standing)

349

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

SC-371 Oceanography 3 0 3 This subject introduces the student to the physical study of the ocean and its basin. Specific topics include: the nature of the ocean bottom and its relation to continental drift; ocean currents, causes, locations, characteristics and effects on land masses; and ocean wave mechanics, physics of sea water, acoustical properties of the ocean and the instruments and techniques used to measure ocean properties. Also studied is the interaction between warm water masses and the atmosphere, which acts as a heat engine, causing energy interchanges which produce much of the Earthâ€™s weather. A detailed exploration is made of the potential of the ocean to supply large amounts of energy from its mechanical, electrical, thermal and chemical resources. The course includes a visit to the Milwaukee Maritime Center. (prereq: junior standing) SC-499 Independent Study 1 0 3 Students are given the opportunity to pursue an approved subject not covered in regularly scheduled course work. This may take the form of individual or small group studies, literature surveys, and laboratory or research projects. Weekly meetings with the course advisor are required. A final report to be filed in the Physics and Chemistry Department may also be required. This course is offered to students with junior or senior standing. (prereq: consent of the course advisor, and the Physics and Chemistry Department chair) SE-0010 Introduction to Software Development 1 2 2 This course provides an introduction to object-oriented software development using the Java programming language. Emphasis is placed on translating written problem descriptions into robust software solutions. Topics covered include Java program structure, algorithmic problem solving and modularization, I/O statements, control constructs, looping techniques, and class libraries. SE-1011 Software Development I 2 2 3 This course provides an introduction to object-oriented software development using the Java programming language. Emphasis is placed on translating written problem descriptions into robust software solutions. Topics covered include Java program structure, algorithmic problem solving and modularization, I/O statements, control constructs, looping techniques, class libraries, user-defined classes and methods, arrays and ArrayLists. SE-1021 Software Development II 2 2 3 This course continues the study of objected-oriented software development using the Java programming language. Students design, document and implement software classes and incorporate these classes into larger applications. Topics covered include abstraction, encapsulation, declaring and implementing abstract data types, interfaces, inheritance, polymorphism, and simple event-driven programming. (prereq: SE-1011) SE-2030 Software Engineering Tools and Practices 2 2 3 This course provides an introduction to the software engineering tools and practices - a look at a typical approach software engineers use to create applications in practice. Topics include requirements analysis, high-level design, detail-level design, UML modeling, code generation, application building, and revision management. Laboratory assignments provide an opportunity for students to develop an understanding of these tools and how they are used in actual practice. (prereq: CS-2852) SE-2040 Software Development III 3 2 4 This course introduces students to the C/C++ programming language in order to give them a working knowledge of the language as well as broader experience with system programming languages. In addition, students are introduced to two additional programming language paradigms to which they had not yet been introduced to previously: scripting languages and functional programming languages, in order to give them awareness of alternate programming approaches and when best to employ the various approaches. (prereq: CS-2852)

350

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

SE-2800 Software Engineering Process I 2 2 3 This course provides an introduction to the software engineering process and the management of software projects. Topics covered include the software life cycle, effort tracking, project planning, measurement and estimation, reviews and checklists, and software quality management. Laboratory assignments provide an opportunity for students to develop and enhance a defined process for their own work. (prereq: SE-2030, CS-2852) SE-2811 Software Component Design 3 2 4 This course deals with the design and implementation of software subsystems. The concept of design patterns is introduced and common patterns are applied to the development of software components. Laboratory projects provide an opportunity for teams of students to implement components and to integrate them into complete systems. (prereq: SE-2030) SE-2832 Introduction to Software Verification 3 2 4 This course introduces students to the fundamental concepts of software testing. Topics covered include the activities within testing, coverage criteria, basic testing techniques and types, basic testability metrics, and the application of testing tools. Laboratory assignments provide extensive opportunities to apply software verification techniques and tools. (prereq: MA-2310, SE-2800 or consent of instructor) SE-2840 Web Application Development 3 2 4 This course provides an introduction to design and development of Web applications and to the Representational State Transfer (REST) architecture on which they are based. Course topics also include the Model-View-Controller (MVC) design pattern, Web application frameworks, document object models, client-side and server-side scripting techniques, security, and interaction with relational databases. (prereq: CS-2852, CS-2910) SE-2890 Software Engineering Practices 2 2 3 This course provides an introduction to the discipline of software engineering for non-majors. Students will be exposed to the practices employed in determining requirements for the software which is to be developed. From the requirements specification, problem domain analysis will lead to a high level design. After review, the high level design will be used to create detailed designs and implement the software on a desktop machine. These activities will be reinforced through a team project and culminating with group oral presentations. (prereq: CS-2852) SE-3191 Software Development Laboratory I 2 4 4 The software development laboratory provides experience in various roles, working on largescale projects using software engineering tools and techniques. In this first course in the sequence, students are introduced to the laboratory environment and work on assigned tasks as members of project teams. (prereq: SE-2800 or SE-280, SE-2811, SE-3821) SE-3192 Software Development Laboratory II 2 4 4 This is the second course in the software development laboratory sequence, in which students work on large-scale software projects. As students develop their individual and team skills, they can take on additional roles and responsibilities on a project team or in laboratory staff positions. (prereq: SE-3191, SE-380) SE-3193 Software Development Laboratory III 2 4 4 This is the third course in the software development laboratory sequence, in which students work on large-scale software projects. At this stage, students are expected to help define requirements for future project work and to contribute actively to laboratory process assessment and improvement. (prereq: SE-3192) SE-3250 Introduction to Game Development 2 2 3 This course introduces students to game development, game programming, and the computer game industry. It reviews games in a social and historical context and covers the basics of game design and development. Game development and programming fundamentals are covered. Students will be required to perform a project that extends lecture and lab materials. (prereq: CS-2852 or consent of instructor) 351

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

SE-380 Principles of Software Architecture 3 2 4 This course provides an introduction to the architecture and design of complete software systems, building on components and patterns. Topics covered include architectural principles and alternatives, design documentation and the relationship between levels of abstraction. Laboratory assignments permit students to develop, evaluate and implement their designs. (prereq: SE-3821, SE-2811) SE-3800 Software Engineering Process II 3 0 3 This course provides an introduction to team-based software processes by studying contemporary process models and the different approaches they take to integrating activities such as team formation, planning, requirements analysis, design, implementation and testing. Course concepts are reinforced by classroom exercises, including a project launch, peer reviews and formal code inspections. Homework assignments focus on the application of software quality assurance tools to static analysis, defect and feature tracking, change control and continuous integration. (prereq: SE-2800 or SE-280) SE-3811 Formal Methods 2 2 3 This course introduces the use of formal mathematical notation and reasoning in the software development process. These methods have applications in requirements specification, design and verification. Course topics include mathematical foundations, predicates, preconditions and postconditions, alternative notations, types of formal models, and the strengths and limitations of formal methods. (prereq: MA-2310 or MA-230) SE-3821 Software Requirements and Specification 3 2 4 This course covers activities that relate to the determination and documentation of software system requirements. Topics covered include requirements elicitation, object-oriented analysis techniques, prototyping, requirements tracking and re-engineering. (prereq: SE-2030) SE-3830 Human-computer Interaction 2 2 3 This course provides an introduction to user interaction design for computer and software systems. Topics include design of user interfaces that take advantage of usersâ€™ prior knowledge, engineering models of cognitive behavior, and interface evaluation techniques. Lectures and laboratory activities support application of theory and practical techniques to user interaction with desktop graphical user interfaces, Web-based applications, mobile devices, and embedded systems. (prereq: MA-262, CS-2852, SE-3821 or SE-2890) SE-3910 Real-time Systems 3 3 4 This course introduces students to software development for real-time systems, which often have stringent timing constraints that must be satisfied even under adverse circumstances caused by component failures. Real-time applications include flight control systems, vehicle control systems, industrial processes, life-support systems, robotic manipulators and multimedia applications. Special attention is paid to scheduling, latency minimization, bandwidth constraints, and other design issues that impact the design of these systems. Laboratory assignments provide experience in the design and implementation of realistic applications using a real-time operating system. (prereq: CS-2710 or CE-2930, CS-3844 or CS-3841) SE-400 Senior Design Project I 2 2 3 This is the first of three courses in the senior design sequence where students work as a team on a significant software project. Each student team must specify, design, implement, document, and test a substantial software project. Teams meet regularly with their instructor to track technical and project management issues. (prereq: CS-3844, CS-3851, CS-386, SE-3192, SE-380, SE-3800, SE-3910, SE-3821) SE-401 Senior Design Project II 2 2 3 This is the second of three courses in the senior design sequence where students work as a team on a significant software project. Each student team must specify, design, implement, document, and test a substantial software project. Teams meet regularly with their instructor to track technical and project management issues. (prereq: SE-400 taken in the same academic year) 352

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

SE-402 Senior Design Project III 2 2 3 This is the third of three courses in the senior design sequence where students work as a team on a significant software project. Each student team must specify, design, implement, document, and test a substantial software project. Teams meet regularly with their instructor to track technical and project management issues. (prereq: SE-401 taken in the same academic year) SE-4094

Software Development 2 2 3 Management Laboratory This course provides students with an opportunity to study important issues in the management of software development projects and organizations, and to apply related knowledge and skills to management activities and process improvement in the software development laboratory. As part of the course, each student is expected to define, implement and evaluate a significant project, and to contribute to the work of less experienced student teams. (prereq: SE-3193 or SE-4093) SE-4831 Software Quality Assurance 2 2 3 This course covers selected topics within the broad area of Software Quality Assurance (SQA). The course begins with an overview of SQA followed by an in-depth investigation of software testing. The type of testing addressed in this course is black-box testing at the system and acceptance levels. Topics include test planning and documentation, risk analysis, defect reporting and tracking, exploratory and plan-driven strategies, and test management and reporting. Commonly used test techniques such as partition and boundary testing, combinatorial testing, model-based testing, security testing, and fault-based testing are covered. Measurement of software quality and the question of when to stop testing are addressed. Students employ their testing skills in a team-based, multi-week laboratory assignment in which they system test a substantial software application. (prereq: SE-2832 or SE-2831, SE-3821) SE-4900 Software Engineering Project Management 2 2 3 This course presents the standard management functions with a focus on the unique practices and procedures of software engineering projects. Course content includes both the quantitative and behavioral skills required for successful project management. Hands-on experience with current estimation techniques and project management software is incorporated. (prereq: SE-3800 or SE- 2890, junior standing, consent of instructor) SE-4910 Mobile Application Development 2 2 3 This course provides an introduction to the architecture, design and development of software systems that support cell phones, smart phones and other mobile devices. Topics include the use of mobile browsers with traditional Web-based applications, specialized techniques appropriate to mobile device limitations and capabilities, and emerging trends in mobile computing. Labs provide hands-on experience developing mobile applications. (prereq: CS-2852) SE-4930 Developing Secure Software 2 2 3 The complexity of software applications and the value of the data being handled by these applications has risen multi-fold in recent times. Unfortunately, this has been accompanied by the increased sophistication of the attack to gain unauthorized access to that data. When designing a malicious attack, attackers often exploit existing weaknesses and vulnerabilities in the current applications. Many of these vulnerabilities are a result of software defects that could possibly have been avoided if good "secure" development practices were followed. This course provides an overview of the various techniques and best-practices used in the different phases of a software development life cycle that are targeted towards the development of secure software. (prereq: SE-2800 or SE-280 or SE-2890)

353

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

SE-4940 Network Security Tools and Practices 2 2 3 This course introduces students to the dynamic field of network security through the application of tools and practices commonly used in real-world network environments. Students will learn the history of securing computer networks and the evolution of threats from hackers to sophisticated criminal organizations. Networking basics will be covered, specifically application level protocols (SSH, HTTP, SSL, etc.). Proactive security measures including authentication, encryption and firewalls are introduced. Monitoring technologies including intrusion detection, packet sniffing and computer/network forensics approaches will be covered and applied. Specific threats including network worms, phishing attacks, malware (viruses, spyware, rootkits, etc.), denial of service will be analyzed and prevention or recovery solutions will be applied. Lab and homework exercises will focus on the application of tools in a live network environment to achieve best practices in network security. (prereq: junior standing in CE or SE, familiarity with Linux) SE-499 Independent Study 1 0 3 A student enrolled in this course is afforded the opportunity to pursue a specialized topic in his or her chosen field of study. After an approved area of study has been selected, weekly meetings with the course advisor are required. A final report, the format of which is left to the discretion of the advisor, is required at the end of the term. (prereq: junior or senior standing, consent of the course advisor and department chairman) SS-415 Cultural Dimensions 3 0 3 These courses, offered through our Sociology subject series, provide a general introduction to the indigenous people and culture of a specific nation or region. Normally, the courses will include treatment of such topics as geography, natural resources, historical background, society, politics and current affairs, art, religion, business, literature and other related subjects. Areas of particular emphasis may differ due to instructor interest and expertise. SS-415A African American Culture 3 0 3 This course introduces the concepts and issues of the African American cultural contributions to the United States, the African American experience in a predominantly European American country, African American struggles and cultural greatness. SS-415AM American Culture 0 0 3 What exactly do we mean when we talk about American culture(s) in the new millennium? How do we as Americans view ourselves, and how do others perceive us? This course will explore what is uniquely American about our societyâ€™s behavior, beliefs, institutions, and arts and entertainment venues. Readings will include works from anthropologists, historians, journalists, and other scholars who will draw upon their observations of events and trends in American culture. SS-415CH Chinese Culture 3 0 3 This course is designed to provide insight into the Chinese people and culture. It includes such topics as geography, natural resources, historical background, society, politics and current affairs, art, religion, business, literature and other cultural traditions. SS-415F French Culture 3 0 3 This course will make the student familiar with a general frame of reference of French culture. The course will cover geographic information about forms of relief, rivers, mountains, climate and population distribution. A major outline of French history will be accompanied by the presentation of political events, important historical figures and great cultural accomplishments. The last part of the course will cover the French educational system, immigration, and everyday life in France. Five video documentaries will illustrate some of the content of the course: the castles on the Loire Valley, Versailles, the Louvre, Mont St. Michel, Paris. SS-415G German Culture 3 0 3 This course moves chronologically forward from the time of Germanyâ€™s first unification in 1871 to the present day, noting the interconnectedness of the past and the present. In an effort to define and explore aspects of German culture, students study and discuss political and philosophical writings, art, literature, and film, all within a specific historical context. Subtopics such as religion, education, geography, commerce, and recreation are also addressed. Course grades are determined by reading, quizzes, a midterm and final exam, and two paper assignments. 354

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

SS-415I Italian Culture 3 0 3 This course is designed to provide insight into the Italian people and culture. It includes such topics as geography, natural resources, historical background, society, politics and current affairs, art, religion, business, literature and other cultural traditions. SS-415IR Irish Culture 3 0 3 This course is designed to provide insight into the Irish people and culture. It includes such topics as geography, natural resources, historical background, society, politics and current affairs, art, religion, business, literature and other cultural traditions. SS-415J Japanese Culture 3 0 3 This course is designed to provide insight into the Japanese people and culture. It includes such topics as geography, natural resources, historical background, society, politics and current affairs, art, religion, business, literature, and other cultural traditions. SS-415LA Latin American Culture 3 0 3 This course is a survey of various aspects of Latin American culture. Through the study of historical, theoretical, and literary texts, plus cinematic and cultural productions, we will address many dimensions of Latin American culture. SS-415N Native American Culture 3 0 3 This course provides a general overview of the traditional cultures of American Indian cultures and societies in North America. The course will focus upon examining the rich complexity and diversity of American Indian societies through the study of social structures, political systems, religious beliefs, and cultural practices of various tribal groups. There will be a particular emphasis on Native American oral traditions (e.g., myths, legends, oratory and songs) and how these reflect the world views of the cultures that created them. Students will also be introduced to the anthropological methods and theories that are used to study American Indian cultures. SS-415P Polish Culture 0 0 3 This course is designed to provide insight into the Polish people and culture. It includes such topics as geography, natural resources, historical background, society, politics and current affairs, art, religion, business, literature, and other cultural traditions. SS-415R Russian Culture 3 0 3 This course is designed to provide insight into the Russian people and culture. It includes such topics as geography, natural resources, historical background, society, politics and current affairs, art, religion, business, literature and other cultural traditions. SS-415S Introduction to Spanish Culture 3 0 3 This course is designed to provide insight into the different Spanish cultures. It will include such topics as the geography, natural resources, historical background, society, politics and current affairs, art, religion, business, literature and other cultural traditions. SS-453 American Government 3 0 3 This course is a study of the American governmental system and an analysis of the appropriateness of this system at this time. The challenges to democratic government, the question of constitutional government, the question of individual rights, the question of popular representation, and the question of responsible leadership are the basic topics treated. The course integrates political science, history and law to produce a greater awareness and understanding of current affairs. SS-454 Political Science 3 0 3 This course will provide basic information concerning the nature and scope of political science; the theory, organization and characteristics of the state; the forms of government; the philosophy and institutions of democracy; and the processes and functions of modern government. The governments of various nations are compared and contrasted. Students are encouraged to keep themselves informed about current developments in these areas and to develop a critical attitude toward them.

355

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

SS-455 International Relations 3 0 3 This subject provides basic information concerning international relationships. Topics covered are foreign policy, national security, alliances, theories of war, the balance of power, the balance of terror, international law, and diplomacy. Features of Russian, Chinese, U.S., U.S. Allies and Third World foreign policies and internal principles are examined. The student is encouraged to relate theoretical principles discussed with current developments in the international arena. SS-456 Public Policy in Urban America 3 0 3 This course examines the influences upon and consequences of federal and local decision making in shaping the spatial and demographic characteristics of urban areas in the 21st century. The course also examines the effects of land use, transportation, community development and housing policies upon the evolution of metropolitan areas, the increasing racial and economic segregation that has resulted from these policies, the relationship of these policies to the growth of crime and welfare, and the deterioration of urban education systems. SS-457 Current Affairs 3 0 3 This course is designed to encourage students to keep themselves informed about problems at the local, national, and international levels and to develop a critical attitude toward those problems. Discussions of stories in the news, both in magazines and newspapers and on radio and television, will help to complement material in the text. Students are expected to express their ideas orally (through both individual classroom contributions and through formal panels), and in writing. SS-458

Contemporary European Society 3 0 3 and Government This course is a study of the development of European political ideologies during the Modern Age and the various European nations that have adopted and developed those ideologies. Of particular concern are the ideologies of liberalism, socialism, and fascism. The course will also examine the development of the European Union since World War II and the political and economic integration of Europe. The course will be historical in that it will examine those past phenomena that were important to the development of European ideologies and governmental institutions. The course will also focus upon contemporary issues facing Europe today. SS-4595 The Sustainable City 3 0 3 The first decade of the twenty-first century has seen a concerted effort among many politicians, policymakers, and urban planners to create greener, more sustainable cities. This course will take such efforts seriously, exploring in depth why and how urban centers across the globe are attempting to become more environmentally conscious. What is fueling this re-imagining of the city, and why is it happening now? Who is, and who isnâ€™t, participating in such discussions? Questions of politics and public policy will drive this course, but attention will also be paid to economic factors (including the flight of capital and the legacy of deindustrialization) and a host of non-state actors (such as groups dedicated to conservation and environmental justice). This course will also feature a service-learning component, allowing students to see first-hand how such ideas are playing out in the city of Milwaukee. SS-460 Foundations of Psychology 3 0 3 This course provides an overview of the diverse discipline of psychology, the scientific study of behavior and mental processes, and the applications gained from this knowledge. The course emphasizes the fundamental methods and theories in psychology, the historical development of the field, and current research and applications. Topics of discussion include personality theories and human development, emotions and motivation, learning and memory, cognition and perception, psychopathology, and social psychology. Through this course the student should gain an increased understanding of the field of psychology, an enhanced ability to think critically and the ability to apply psychological principles to everyday life. SS-461 Organizational Psychology 3 0 3 This course is designed to show the application of psychological aspects of managerial processes such as motivation, group processes, conflict resolution, working conditions, and organizational structure and their influences on job satisfaction. Basic research methodology principles are 356

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

discussed to help students become critical thinkers and to understand potential biases in research. Current trends and issues such as downsizing, quality, market globalization, and diversity are emphasized throughout the course. All students are administered the Myers-Briggs test and given feedback. (prereq: sophomore standing)

SS-462 Developmental Psychology 3 0 3 The course surveys human development for the entire lifespan beginning with prenatal development. Major theories, research, and issues related to biosocial, cognitive, and psychosocial growth are examined and the interplay of these three domains is considered. Emphasis is placed on understanding the student’s own developmental past, present, and future. SS-464 Human Factors in Engineering and Design 2 2 3 This course examines the concept of the human, systems, and environmental interaction. Emphasis is on the human aspect of human-machine systems to make the student more aware of the human element in the design of equipment and work. Human sensory, psychological and biomechanical processes are examined, indicating the role they play in the design and application of controls, tools and displays. The effects of illumination, noise, information processing, stress, fatigue, and boredom on human beings are also examined. The student will be expected to research and make several presentations on areas of human factors. (prereq: junior standing) SS-466 Abnormal Psychology 3 0 3 This course is designed to involve students in the subject matter of abnormal psychology and to assist them in achieving an integrated view of current knowledge about deviant behavior. Particular attention is given to understanding the theories that address why such behavior occurs. Therapeutic interventions are also explored. SS-467 Social Psychology 3 0 3 This course provides an overview of the diverse and rapidly changing field of Social Psychology. Social Psychology can be defined as “the scientific field that seeks to understand the nature and causes of individual behavior and thought in social situations.” (Baron & Byrne, Social Psychology). It has often been called the “psychology of the normal person.” By studying social psychology we can become more aware of how and why we behave, think, and feel as we do in situations involving others. The course emphasizes social psychology’s fundamental areas and methods of study, as well as its applications. Specific areas of investigation include: social cognition and perception, attitudes, social identity, the self, prejudice, interpersonal attraction, close relationships, social influence, prosocial behavior, aggression, and group dynamics. Through this course, the student should gain an enhanced understanding of how the findings of psychology apply to everyday life. SS-471 Sociology 3 0 3 The goal of this course is to develop in the student an awareness of the relationship between larger social forces and personal experience. Specific areas of focus include social organization, culture, socialization, family, stratification of societies, deviance, social movements and social issues. Through this course, the student should gain an increased understanding of the field of sociology, an enhanced ability to think critically, and the ability to apply sociological principles to everyday life. SS-472 Social Problems 3 0 3 This course helps to make the student aware of the problems and challenges of our modern times. Included are problems associated with the family, physical and mental health, poverty, ethnic and race relations, gender and age inequality, drugs, crime, and environmental concerns. SS-473 World Societies 3 0 3 The purpose of this course is to assist the student in becoming a better world citizen through cultural understanding. By uncovering the sources, forces, and factors that form societies, the student will develop a deeper appreciation for, and a clearer understanding of, the rich cultural diversity of our world.

357

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

SS-474 The Family 3 0 3 This course is designed to provide the student with insight into the American family system and give the student the tools with which to make informed decisions about his/her future with respect to family and intimate relationships. Issues addressed in this course include gender, love, courtship, sexuality, diverse family forms, communication, parenting, work, family violence, uncoupling and remarriage. Attention is also given to families of diverse cultures and nations. SS-475 Addictions and Compulsions 3 0 This course introduces the student to various causes, consequences and treatments of compulsive and addictive behaviors. Included are drug and alcohol-related issues and compulsive behaviors that do not involve substances.

SS-476 Death and Dying 3 0 3 Death and dying is a universal human event. This course considers how individuals and societies develop ways of coping with death on a personal and on a societal level. Additional areas of focus include health care decisions, grief, suicide, homicide and terrorism. SS-492 Educational Methods 3 0 3 This course acquaints the student with various learning styles, teaching styles and instructional methods. Time is devoted to the fundamentals and mechanics of classroom management, visual aids, assignments, evaluation techniques, course preparation and provision for individual differences in the classroom. Activities include lectures, discussion groups, group projects, student presentations, and outside reading. SS-495 Social Science Selected Studies 3 0 3 This course covers timely topics in the social sciences or specialized subjects that reflect the expertise/interest of current General Studies Department faculty. This class is limited to 15 students. TC-1111 Introduction to Technical Communication 3 0 3 This course introduces students to the wide range of career options available in the technical communication field. Special emphasis is given to technical writing style, which can be applied in all the upper-division technical writing courses. Both in-class and out-of-class writing assignments provide practical experience in working on style. Another aspect of the course is to provide students with tours of facilities which employ technical communicators. Students will also make an oral presentation about technical material. TC-151 Theory of Human Communication 3 0 3 Various theories of communication are examined in order to establish a framework for understanding the complex phenomenon of human communication. Theory is defined and a number of theories that cover a wide range of communication concepts (such as semantics, nonverbal communication, and persuasion) are studied. Theories are examined critically to determine the social, political, and historical factors which might have motivated the authors and perhaps colored their perceptions of communication. TC-172 Desktop Publishing 2 2 3 This course combines classroom discussion and a â€œhands onâ€? computer lab to prepare students to design and develop page layouts on Macintosh and PC computer systems. Students completing this course become literate in computer terminology through discussions on historical computer development, different operating systems, and computer hardware/software. In addition, the principles of page design and layout techniques are examined. The lab portion of the course allows students to use and learn several software programs at various levels, including Adobe InDesign, Adobe Illustrator, Adobe Photoshop, and scanning software. After completing this course, students are able to use the desktop computer and various software programs in combination to create professional looking documents.

358

TC-242 Persuasive Speech 3 0 3 Students will study the organization of persuasive presentations as well as the ethical considerations necessary for persuasive communicators. Theories of attitude, change, and audience analysis will be covered. Value-based, logical, and emotional appeals will be presented as a foundation for discussing persuasive movements, mass media, propaganda and advertising. (prereq: EN-241)

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

TC-261 Research Methods 3 0 3 This course will introduce students to the basics of the scientific method of conducting primary research. Research methods and design will be explained and techniques for gathering information will be explored. (prereq: EN-132) TC-321 Visual Design Techniques 3 2 4 This is a survey course encompassing the fundamentals of visual communication, computer graphics, traditional techniques and their application to communication design. Production exercises include advertising-based documents, informational/persuasive-based documents, vector graphic/logo design, and basic web design. Effective applications of typographic design, visual layout, audience consideration, client consideration, and color are integrated throughout the course and through the use of Photoshop, Illustrator, Fireworks, and Dreamweaver. This course is a balance between lecture, in-class workshops, and group projects. This class requires that the student have some experience with desktop publishing software and/or some awareness of the Adobe Creative Suite programs. (prereq: EN-132 or advanced writing skills) TC-332 Advanced Technical Writing 3 0 3 This course gives the student practical experience in developing and preparing technical documentation. Discussions emphasize the importance of knowing your audience and writing efficient documentation. Students learn and experience first-hand the technical documentation process preparing them for the tasks for which they will be responsible in their careers. The major requirement for this course is researching, writing and producing a user manual. The manual will be of a quality that it can be used as part of the studentsâ€™ portfolios. In addition, students are responsible for a number of technical writing assignments leading up to the completion of the user manual. These include, but are not limited to, a user analysis, documentation plan, and style guide. (prereq: EN-132 or TC-1111) TC-342 Professional Presentation Techniques 2 2 3 This course is designed to challenge conventional methods of creating and delivering professional presentations. The course incorporates several ground-breaking presentation approaches that have influenced the perceptions of the worldâ€™s famous brands and businesses. Through hands-on projects, students will learn how to apply innovative presentation techniques to create influential content, captivating visuals, and dynamic and memorable performance. (prereq: EN-241) TC-351 Organizational Communication 3 0 3 This subject investigates organizational structures and the possible impediments to effective communication within the structure. Various tactics are studied to promote better communication. Attention is paid to managerial problems, specialized jargon, filtering and distortion in directional communication, and informal communication channels. TC-381 Marketing Communication 3 0 3 This course focuses on integrated marketing communications, which includes synchronized communication management, multichannel communication flow, message consistency, measurement, and tailored relationship-building messages. It tightly integrates the marcom function with marketing and sales objectives, concentrating on controlling the communication pathways with the customer. Primary emphasis is on writing a full range of marcom techniques. TC-432 Writing and Editing for Publication 3 0 3 This course introduces students to the publishing industry and provides an overview of the entire process of publication, from the topic proposal stage through the printing and distribution of the final published product. All forms of publishing are covered: books, magazines (consumer, literary, trade), refereed professional journals, newsletters, and electronic venues and students develop strategies for targeting specific outlets for their work. Students write a series of individual query proposals, reviews, and articles, and they produce a newsletter issue, participating in all phases of the editing process from initial brainstorming and audience analysis to printing and distribution of the final publication.

359

Lecture Hours Per Week

Lab Hours Per Week

Credit In Quarter Hours

TC-433 Knowledge Management 3 0 3 This is a survey course encompassing the fundamentals of knowledge management (KM) for technical communication. KM is becoming an increasingly important discipline that promotes the discovery, capture, sharing, and application of an organizationâ€™s knowledge for the purpose of creating competitive advantage through a learning organization. The course will look at KM through the eyes of a content creator and knowledge manager. (prereq: EN 132 or advanced writing skills, selected articles and readings) TC-451 Mass Communication 3 0 3 This course surveys mass communication theories and practices. The course will review all forms of historic and modern mass communication, including broadcasting and publishing. It will also consider the advent of networking via the Internet. The course further will examine the news business as well as the entertainment and information industries. Issues to be considered include mass media ownership and concentration; ethics and law; the influence of media upon public customs; attitudes and beliefs; and the credibility of media messengers. TC-452 Interpersonal Communication 3 0 3 This course is designed to provide students with an opportunity to develop competencies in the areas of interpersonal communication in both the public and personal arenas. Various written individual assignments focus on sending and receiving clear verbal and non-verbal messages within the framework of both personal and professional contexts. Other areas of skill development covered are perception, listening, resolving conflicts, and the development and maintenance of interpersonal relationships. Students will participate in a research project working collaboratively in dyads. TC-453 Intercultural Communication 3 0 3 The objective of this course is to develop effective communicators who can recognize, analyze, and resolve intercultural conflicts. With a focus upon increased globalization and the changing nature of the nationâ€™s population, students are taught to adapt to unfamiliar cultures and establish ways and means for effective communication. TC-490 Independent Study 0 0 2 This subject provides an advanced student with an opportunity to develop an in-depth understanding of an area within the field of Technical Communication. (prereq: consent of department chair) TC-495 Selected Topics in Technical Communication 3 0 3 This course covers timely topics in the technical communication field or specialized subjects that reflect the expertise/interest of current Technical Communication program faculty. This course fulfills the TC-495 requirement for Technical Communication majors. It also fulfills requirements for the Technical Communication minor, with individual course sections identified by subject area (theory, speaking, writing, applications) requirements met. This class is limited to 15 students (prereq: EN-132, EN-241) TC-498 Technical Communication Practicum 3 0 3 This course is designed to give students working toward the Technical Communication minor or Technical Communication certificate an opportunity to gain workplace experience in the technical communication field. Each student is required to submit a final report documenting all aspects of the practicum experience. (prereq: senior standing, enrollment in TC minor or TC certificate program, permission of TC program director) TC-499 Internship 6 0 6 The senior technical communication student is required to work in an approved technical communication situation. All internships must be arranged through the General Studies Department. This internship is designed to allow the student to experience the realities of the profession. Each student is required to submit a comprehensive final report documenting all aspects of the internship. (prereq: senior standing, permission of TC program director)

360

THE ROSTER

361

The MSOE Board of Regents MSOE is a nonprofit, nonstock, independent institution of higher learning governed by a Board of Regents elected from the Corporation. The Corporation is comprised of representatives of business, industry, health care, government and education.

Officers Chairman Alan J. Ruud ’69, P.E. D. Eng. (Hon.) Chairman and CEO Ruud Lighting Inc. Racine, Wis. Vice Chairmen Michael J. Cudahy D. Eng. (Hon.) President and Owner The Endeavors Group LLC Milwaukee, Wis. Robert D. Kern D. Eng. (Hon.) Retired Chairman Generac Power Systems Waukesha, Wis. Gerald F. Lestina Retired President and CEO Roundy’s Inc. Milwaukee, Wis. John S. Shiely D. Bus. Econ. (Hon.) Retired Chairman, President and CEO Briggs & Stratton Corp. Milwaukee, Wis. David V. Uihlein Jr. D. Eng. (Hon.) President Uihlein-Wilson Architects Milwaukee, Wis.

MSOE President Hermann Viets, Ph.D. Milwaukee School of Engineering Milwaukee, Wis. B.S. Polytechnic University ’65; M.S. Polytechnic University ’66; Ph.D. Polytechnic University ’70 Vice President of Academics Frederick Berry, D.E. Milwaukee School of Engineering Milwaukee, Wis. B.S. Louisiana Tech University ’81 M.S. Louisiana Tech University ’83 D.E. Louisiana Tech University ’88 Vice President of Development Frank Habib ’09 Milwaukee School of Engineering Milwaukee, Wis. B.S. University of Wisconsin-Milwaukee ’73 M.S. Milwaukee School of Engineering ’09 Vice President of Finance and CFO Armund Janto Milwaukee School of Engineering Milwaukee, Wis. B.B.A. University of Wisconsin-Milwaukee ’70 Vice President for Student Life Patrick J. Coffey Milwaukee School of Engineering Milwaukee, Wis. B.A. Holy Cross College ’65; M.A. University of Wisconsin-Madison ’66 Treasurer and Controller Pat Augustine Milwaukee School of Engineering Milwaukee, Wis. B.B.A. University of Wisconsin-Milwaukee ’84 Vice President of Enrollment Management Timothy Valley Milwaukee School of Engineering Milwaukee, Wis. B.S. University of Wisconsin-Stevens Point ’89 M.S. Iowa State University ’92

362

Board of Regents Robert Arzbaecher Chairman, President and CEO Actuant Butler, Wis. Michael J. Barber ’82 Vice President healthymagination GE Healthcare Milwaukee, Wis. Jack M. Blank* D. Eng. (Hon.) Retired President The Falk Corp. Milwaukee, Wis. J. Michael Borden D. Bus. Econ. (Hon.) President and CEO Hufcor Inc. Janesville, Wis. John L. Cain President and CEO Scot Forge Spring Grove, Ill. Allen J. Carlson ’79 President and CEO Sun Hydraulics Sarasota, Fla. Michael J. Cudahy* D. Eng. (Hon.) President and Owner The Endeavors Group LLC Milwaukee, Wis. Curt Culver Chairman and CEO MGIC Investment Corp. Milwaukee, Wis George D. Dalton* D. Bus. Econ. (Hon.) Former Chairman and CEO NOVO 1 Inc. Waukesha, Wis. Willie D. Davis D. Bus. Econ. (Hon.) President All-Pro Broadcasting Inglewood, Calif. Dwight D. Diercks ’90 Senior Vice President, Software Engineering NVIDIA Santa Clara, Calif. David L. Doerr Retired Chairman Rexnord Geared Group Milwaukee, Wis.

John E. Duncan ’ 79 President Off-Road Driveline Technology and Axle Systems ZF Industries Inc. Vernon Hills, Ill. Susan Feith D. Bus. Econ. (Hon.) Vice Chairman Mead Witter Foundation Inc. Wisconsin Rapids, Wis. Eckhart G. Grohmann D. Eng. (Hon.) Former Chairman and President Aluminum Casting & Engineering Co. Milwaukee, Wis. Thomas J. Hauske Jr. Chairman Everett Smith Group Ltd. Milwaukee, Wis. Robert J. Hillis* D. Eng. (Hon.) President and CEO Direct Supply Inc. Milwaukee, Wis. Michael E. Hora Former Vice President A.T. Kearney New York, N.Y. Frank M. Jaehnert President and CEO Brady Corp. Milwaukee, Wis. Robert D. Kern* D. Eng. (Hon.) Retired Chairman Generac Power Systems Waukesha, Wis. Frederick D. Kuester Executive Vice President Wisconsin Energy Corp. Milwaukee, Wis. Craig L. Leipold CEO and Owner Minnesota Wild Racine, Wis. Gerald F. Lestina* Retired President and CEO Roundy’s Inc. Milwaukee, Wis. Jay V. Loewi President and Owner QTI Group Madison, Wis.

*Executive Committee

363

Fred G. Luber* D. Eng. (Hon.) Chairman Super Steel Products Corp. Milwaukee, Wis.

John W. Splude D. Bus. Econ. (Hon.) Senior Advisor and Board Member Dematic Corp. New Berlin, Wis.

Paul B. Luber CEO and Co-owner Jor-Mac Co. Grafton, Wis.

Brian J. Stark ’71 Retired President Controls Group Johnson Controls Inc. Milwaukee, Wis.

Michael W. Major, Ph.D., D.Sc. President and CEO Cambridge Major Laboratories Inc. Germantown, Wis. Carl R. Marschke, P.E. D. Eng. (Hon.) President Innomation Inc. Phillips, Wis. John A. Mellowes D. Eng. (Hon.) Chairman and CEO Charter Manufacturing Co. Inc. Mequon, Wis. Alex A. Molinaroli Vice President Johnson Controls President Power Solutions Milwaukee, Wis. Scott Moon Chairman and CEO DLSM Inc. Milwaukee, Wis. Agustin A. Ramirez Chairman, President and CEO HUSCO International Waukesha, Wis. Kathy Ruehlow ’72 President Ruehlow Family Foundation Inc. Oconomowoc, Wis. Alan J. Ruud ’69, P.E.* D. Eng. (Hon.) Chairman and CEO Ruud Lighting Inc. Racine, Wis. Wolfgang A. Schmidt, Ph.D. President W.A. Schmidt and Partners Whitefish Bay, Wis. John S. Shiely* D. Bus. Econ. (Hon.) Retired Chairman and CEO Briggs & Stratton Corp. Milwaukee, Wis. 364

Gary A. Stimac ’73 D. Eng. (Hon.) Compaq Founder Retired Senior Vice President and General Manager, Systems Division Montgomery, Texas Timothy W. Sullivan President, CEO and Director Bucyrus International Inc. South Milwaukee, Wis. Alfred J. Tector, M.D. D. Eng. (Hon.) CEO Midwest Heart Surgery Institute Medical Director of Transplant Programs St. Luke’s Medical Center Milwaukee, Wis. David V. Uihlein Jr.* D. Eng. (Hon.) President Uihlein-Wilson Architects Milwaukee, Wis. William D. Van Dyke III D. Bus. Econ. (Hon.) Retired Senior Vice President Smith Barney Milwaukee, Wis. Hermann Viets, Ph.D.* President MSOE Milwaukee, Wis. Gary J. Vroman ’91 President and CEO Ladish Co. Inc. Milwaukee, Wis. Robert A. Wagner ’64 Chairman and CEO R & B Wagner Inc. Butler, Wis. James B. Wigdale D. Bus. Econ. (Hon.) Former Chairman Marshall & Ilsley Corp. Milwaukee, Wis.

*Executive Committee

Regents Emeriti Terry W. Anderson Retired President and CEO Dedicated Computing Waukesha, Wis. Jon R. Appel ’62 President Icon Inc. Yorba Linda, Calif. Foster A. (Jim) Blankenbaker ’43 D. Eng. (Hon.) President FAB Holdings Inc. Scottsdale, Ariz. Jeffrey L. Bleustein, Ph.D. D. Eng. (Hon.) Former Chairman Harley-Davidson Inc. Milwaukee, Wis. Paul F. Bronson D. Bus. Econ. (Hon.) Former Chairman Best Block Co. Milwaukee, Wis./Scottsdale, Ariz. Francis J. Buckley Jr. Retired General Manufacturing Manager GM Electric Roswell, Ga./Bradenton, Fla. James J. Burns ’56 Retired President/Associate Anagram Associates Inc. Tucson, Ariz./ Ireland Richard G. Carlson, Ph.D. Chairman Whitnall Summit Co. West Allis, Wis. Gene P. Carter ’60 D. Eng. (Hon.) Retired Private Investor Saratoga, Calif./Tucson, Ariz. Don H. Davis Jr. D. Eng. (Hon.) Retired Chairman Rockwell Automation Milwaukee, Wis. Clyde J. Denton ’55 Retired President Zetec Inc. Deming, Wash./Ft. Lauderdale, Fla. James L. Dorman Chairman and CEO Intercontinental Trading Ltd. Milwaukee, Wis. James D. Ericson Chairman Emeritus Northwestern Mutual Milwaukee, Wis.

Peter I. Georgeson D. Eng. (Hon.) Chairman Scot Forge Spring Grove, Ill./ Naples, Fla. Richard R. Grigg Executive Vice President and COO FirstEnergy Corp. Akron, Ohio Richard G. Jacobus, CFA* D. Bus. Econ. (Hon.) Vice Chairman and Treasurer Jacobus Wealth Management Inc. Milwaukee, Wis. Robert H. Jenkins Retired Chairman and CEO Sundstrand Corp. River Hills, Wis. Donald R. Johnson Retired Chairman Modine Manufacturing Co. Racine, Wis. David T. Kahler D. Eng. (Hon.) President DK Consulting Milwaukee, Wis./ Flat Rock, N.C. Peter O. Kirchhoff Retired Manager Babcock & Wilcox Milwaukee, Wis. John C. Koss D. Eng. (Hon.) Chairman Koss Corp. Milwaukee, Wis. Joan R. Lloyd President Joan Lloyd & Associates Milwaukee, Wis. James A. Lovell Jr. D. Eng. (Hon.) President Lovell Communications Lake Forest, Ill. Donald D. Maurer ’60 President and Owner Maurer & Associates Inc. Marine-on-St. Croix, Minn./ Sanibel Island, Fla. James F. McKinley Jr. Retired Vice Chairman Scot Forge Cape Coral, Fla./Arbor Vitae, Wis.

365

George W. Mead II D. Eng. (Hon.) Chairman Mead Witter Foundation Inc. Wisconsin Rapids, Wis. Thomas L. Misiak ’77 Presque Isle, Wis. Yuzaburo Mogi Chairman and CEO Kikkoman Corp. Tokyo, Japan M.E. Nevins Retired Chairman Wisconsin Centrifugal Inc. Waukesha, Wis./Naples, Fla. Charles W. Parker Jr. D. Eng. (Hon.) President Charles Parker & Associates Ltd. Milwaukee, Wis. Bernard J. Peck Proprietor The Water Street Garage Milwaukee, Wis./Ft. Lauderdale, Fla. Edward W. Raether ’68 Retired Vice President and Managing Principal Industrial Valuation Group American Appraisal Associates Inc. Milwaukee, Wis. Walter L. Robb, Ph.D. D. Eng. (Hon.) Consultant Vantage Management Inc. Schenectady, N.Y. Larry A. Schotz ’73 D. Eng. (Hon.) Former CEO L.S. Research Inc. Cedarburg, Wis./Pompano Beach, Fla. Loraine E. Schuffler D. Hum. Ltrs. (Hon.) Consultant Glenn Humphrey Fund Wisconsin Masonic Foundation Milwaukee, Wis. Richard G. Sim, Ph.D. Retired Chairman, President and CEO APW Ltd. Waukesha, Wis. Robert R. Spitzer, Ph.D. D. Eng. (Hon.) President Emeritus MSOE Burlington, Wis.

366

Warren R. Stumpe D. Eng. (Hon.) Retired Vice President and Chief Technical Officer Rexnord Inc. Mequon, Wis. Robert D. Teece Sr. D. Eng. (Hon.) Retired Executive Vice President Harnischfeger Industries Inc. Naples, Fla. John B. Torinus Jr. Chairman Serigraph Inc. West Bend, Wis. Mark Train Retired President and CEO Jason Inc. Milwaukee, Wis. Jean B. Tyler Consultant Local Government Issues Milwaukee, Wis. John J. Van Beckum Retired Chairman, President and CEO Firstar Bank Brookfield, Wis. George E. Wardeberg Retired Vice Chairman Wisconsin Energy Corp. Naples, Fla. Claude R. Whitney D. Eng. (Hon.) Retired Chairman Allen-Bradley Co. Madison, Wis. Kerry L. Woody Retired President and CEO Ladish Co. Inc. Cudahy, Wis. Larry D. Yost ’77 Retired Chairman and CEO ArvinMeritor Inc. Jacksonville, Fla. Nathaniel K. Zelazo D. Eng. (Hon.) Founder and Chairman Emeritus Astronautics Corp. of America Milwaukee, Wis.

Academic Administration of MSOE President’s Office

Hermann Viets, Ph.D. President

Vice President of Academics’ Office Frederick Berry, D.E. Vice President of Academics

REPORTING ACADEMIC DEPARTMENTS Civil and Architectural Engineering and Construction Management Department Deborah L. Jackman, Ph.D., P.E. Chairperson Rader School of Business Steven Bialek, Ph.D. Chairperson Electrical Engineering and Computer Science Department Owe G. Petersen, Ph.D. Chairperson General Studies Department R. David Kent, Ph.D. Chairperson Mathematics Department Karl H. David, Ph.D. Chairperson Mechanical Engineering Department Matthew A. Panhans, Ph.D., P.E. Chairperson School of Nursing Debra L. Jenks, Ph.D., R.N. Chairperson Physics and Chemistry Department Matey G. Kaltchev, Ph.D. Chairperson

Full-time Faculty Bass Abushakra, Associate Professor, Civil and Architectural Engineering and Construction Management; BS American University ’88; MS Concordia University ’93; Ph.D. Texas A&M ’00 Woodrow G. Adkins, Uihlein/Spitzer Chair of Entrepreneurship; BS University of Maryland ’62 Gul Afshan, Professor, Physics and Chemistry; Program Director, BioMolecular Engineering; BS Lahore College, Pakistan ’81; MS Quaid-I-Azam University, Pakistan ’87; Ph.D. University of Wisconsin-Milwaukee ’99 Aaron J. Armstrong, Assistant Professor, Mechanical Engineering; BS University of Wisconsin-Madison ’93; MS University of Wisconsin-Madison ’96 ’98; Ph.D. University of Wisconsin-Madison ’10 Ellis D. Avner, Adjunct Professor, Physics and Chemistry, Electrical Engineering and Computer Science; AB Princeton University ’70; MD University of Pennsylvania ’75 William O. Barnekow, Professor, Electrical Engineering and Computer Science; BA University of Wisconsin-Milwaukee ’71; MS University of California-Berkeley ’73 Cynthia W. Barnicki, Professor, Mechanical Engineering; Program Director, Engineering; BS Ohio State University ’82; MS Ohio State University ’86; Ph.D. Ohio State University ’88 Frederick Berry, Professor, Electrical Engineering and Computer Science; Vice President of Academics; BS Louisiana Tech University ’81; MS Louisiana Tech University ’83; DE Louisiana Tech University ’88 Steven L. Barnicki, Professor, Electrical Engineering and Computer Science; BS Ohio State University ’82; MS Ohio State University ’84; Ph.D. Ohio State University ’89 Steven C. Bialek, Associate Professor, Rader School of Business; Chairman, Rader School of Business; BA University of Wisconsin-Green Bay ’84; MA University of Wisconsin-Milwaukee ’87; Ph.D. University of Wisconsin-Madison ’98 Jeffrey J. Blessing, Professor, Rader School of Business; Program Director, Management Information Systems; BS University of WisconsinMilwaukee ’81; MS University of California-San Diego ’84; Ph.D. University of WisconsinMilwaukee ’99 Gary C. Boelkins, Associate Professor, General Studies; BA Grand Valley State College ’75; MA Marquette University ’98 Marvin L. Bollman, Professor, General Studies; BS Stout State University ’71; MS University of Wisconsin-Milwaukee ’89 Jon K. Borowicz, Associate Professor, General Studies; BA University of Wisconsin-Madison ’75; MA Johns Hopkins University ’79; Ph.D. Johns Hopkins University ’86

367

Victoria Carlson-Oehlers, Assistant Professor, School of Nursing; BS University of WisconsinMilwaukee ’84; MS University of WisconsinMadison ’94

Jennifer Kelso Farrell, Assistant Professor, General Studies; BA University of Montana ’98; MA Montana State University ’01; Ph.D. Louisiana State University ’07

Michael Carriere, Assistant Professor, General Studies; BA Hampshire College ’98; MA University of Chicago ’02; Ph.D. University of Chicago ’10

William C. Farrow, Assistant Professor, Mechanical Engineering; BS Purdue University ’83; MS Marquette University ’87; Ph.D. Marquette University ’94

Edward W. Chandler, Professor, Electrical Engineering and Computer Science; BS University of Wisconsin-Milwaukee ’75; MS Illinois Institute of Technology ’78; Ph.D. Purdue University ’85; Registered Professional Engineer in the State of Wisconsin

Larry Fennigkoh, Professor, Electrical Engineering and Computer Science; BS Milwaukee School of Engineering ’74; MS Milwaukee School of Engineering ’86; Ph.D. University of WisconsinMilwaukee ’95; Registered Professional Engineer in the State of Wisconsin

Lukie L. Christie, Associate Professor, Mechanical Engineering; BS Milwaukee School of Engineering ’74; MS Milwaukee School of Engineering ’80; MS University of Wisconsin-Milwaukee ’85

Jan Fertig, Assistant Professor, General Studies; BA Southern Oregon State University ’88; Ph.D. University of Nevada-Reno ’02

Christopher J. Damm, Associate Professor, Mechanical Engineering; B.S. University of Minnesota ’91; MS University of Minnesota ’93; MS Brown University ’95; Ph.D. University of California-Berkeley ’01 Karl H. David, Associate Professor, Mathematics; Chairman, Mathematics; BA University of Richmond ’69; MA University of Massachusetts ’74; Ph.D. University of Massachusetts ’78 Janet DeCoopman-Winter, Assistant Professor, School of Nursing; BSN University of Detroit Mercy ’88; MSN University of Michigan ’96 Richard A. DeVries, Associate Professor, Civil and Architectural Engineering and Construction Management; Program Director, MS in Structural Engineering; BS University of Texas, Austin ’87; MS University of California, Berkeley ’89; Ph.D. University of Texas, Austin ’96; J.D., Marquette University Law School, 2006; Registered Professional Engineer in state of Wisconsin; Member of Wisconsin Bar Association James W. Dieball, Associate Professor, Physics and Chemistry; BS University of Wisconsin-Milwaukee ’70; MS University of Wisconsin-Milwaukee ’73

John L. Ficken, Associate Professor, Mechanical Engineering; BS Iowa State University ’58; MS University of Wisconsin ’66; Registered Professional Engineer in the State of Wisconsin James W. Friauf, Associate Professor, General Studies; BA University of Wisconsin-Milwaukee ’84; MA University of Wisconsin-Milwaukee ’86 Kseniya Fuhrman, Assistant Professor, Mathematics; BS University of WisconsinWhitewater ’01; MS University of WisconsinMilwaukee ’03; Ph.D. University of WisconsinMilwaukee ’08 John D. Gassert, Professor, Electrical Engineering and Computer Science; BS Marquette University ’71; MS Marquette University ’74; Ph.D. Marquette University ’95; Registered Professional Engineer in the State of Wisconsin Ronald Gerrits, Associate Professor, Electrical Engineering and Computer Science; Program Director, MS in Perfusion/Cardiovascular Studies; BS Milwaukee School of Engineering ’94; Ph.D. Medical College of Wisconsin ’99 William Gonwa, Assistant Professor, Civil and Architectural Engineering and Construction Management; BS University of Wisconsin-Madison ’82; MS University of Kentucky ’84; Ph.D. Marquette University ’93

Alicia Domack, Assistant Professor, General Studies; BA UW-Madison ’01; MA University of Nebraska-Omaha ’05; Ph.D. University of NebraskaEdward J. Griggs, Associate Professor, Mathematics; Omaha ’09 BS Carroll College ’80; MS University of WisconsinMilwaukee ’84 Michael J. Dunn, Adjunct Professor, Physics and Chemistry, Electrical Engineering and Computer Mark T. Harris, Adjunct Professor, Physics and Science; BS Marquette University, ’58; Chemistry, Electrical Engineering and Computer MD Marquette Medical School ’62 Science; BS University of Rochester ’78; MS University of Wisconsin-Madison ’82; Ph.D. Johns Eric A. Durant, Associate Professor, Electrical Hopkins University Engineering and Computer Science; Program Director, Computer Engineering; BSEE/CE Mark L. Hornick, Assistant Professor, Electrical Milwaukee School of Engineering ’98; MSE Engineering and Computer Science; BS Illinois University of Michigan ’99; Ph.D. University Institute of Technology ’80; MS University of of Michigan ’02 Wisconsin-Madison ’82; Ph.D. University of Kathy S. Faggiani, Professor, Rader School of Wisconsin-Madison ’85 Business; Director, Graduate Management David Howell, Associate Professor, General Studies; Programs; BA Economics, University of Wisconsin Pieper Family Endowed Chair for ServantEau Claire ’79; MBA, UW-Milwaukee ’82; Ph.D. Leadership; BA Whitworth College ’86; MFA Information Systems, University of Colorado at University of Alaska-Fairbanks ’91; Ph.D. Boulder ’92 Washington State University ’97

368

Paul A. Hudec, Associate Professor, Rader School of Business; BA Saint Francis De Sales College ’74; MBA Graduate Theological Foundation ’92; MAPS Saint Francis Seminary ’93; MBA Marquette University ’93; Ph.D. Marquette University ’99; Certified Network Administrator, Novell Inc. H. Peter Huttelmaier, Professor, Civil and Architectural Engineering and Construction Management; Dipl. Ing. University of Stuttgart ’68; MS Concordia University, Montreal ’73; Ph.D. Concordia University, Montreal ’79; Registered Professional Engineer in the State of Wisconsin Olga Imas, Assistant Professor, Electrical Engineering and Computer Science; BS Milwaukee School of Engineering ’99; Ph.D. Marquette University ’04 Deborah L. Jackman, Professor, Civil and Architectural Engineering and Construction Management; Chairperson, Civil and Architectural Engineering and Construction Management; BS Marquette University ’79; MS University of Wisconsin-Milwaukee ’81; Ph.D. University of Wisconsin-Milwaukee ’92; Registered Professional Engineer in the State of Wisconsin; Certified Energy Manager Agnieszka Janiak, Assistant Professor, Physics and Chemistry; M. Sc. Gdansk University of Technology ’97; Ph.D. Gdansk University of Technology ’01 Debra L. Jenks, Associate Professor, School of Nursing; Chairperson, School of Nursing; BSN Winona State University ’83; MSN Marquette University ’92; Ph.D. University of WisconsinMilwaukee ’02 Jovan Jevtic, Assistant Professor, Electrical Engineering and Computer Science; Dipl. Ing. University of Belgrade ’91; MS The Ohio State University ’94; Ph.D. The Ohio State University ’99 Ronald W. Jorgensen, Associate Professor, Mathematics; BS Wittenberg University ’73; MS University of Illinois-Champaign ’75, ’77; Ph.D. Indiana University ’83

Subha K. Kumpaty, Professor, Mechanical Engineering; Program Director, MS in Engineering; BS University of Madras Engineering School ’85; MS Kakatiya University Engineering School ’87; Ph.D. University of Mississippi ’91 Thomas J. Labus, Professor, Mechanical Engineering; BS Purdue University ’68; MS University of Illinois ’71; Registered Professional Engineer in the State of Wisconsin Jeffrey LaMack, Assistant Professor, Electrical Engineering and Computer Science Department; BS Milwaukee School of Engineering ’97; MS Ohio State University ’01; Ph.D. Duke University ’06 Sherrill L. Leifer, Associate Professor, School of Nursing; BSN University of Wisconsin-Madison ’74; MSN University of Wisconsin-Milwaukee ’89; Ph.D. University of Wisconsin-Milwaukee ’04 Deanna Leitzke, PE, Assistant Professor, Civil and Architectural Engineering and Construction Management, BS Milwaukee School of Engineering ’98; MS Milwaukee School of Engineering ’08 Robert O. Lemke, Associate Professor, Civil and Architectural Engineering and Construction Management; BS University of WisconsinMilwaukee ’83; MS Milwaukee School of Engineering ’99; Registered Professional Architect in Wisconsin (NCARB certified) John E. Lunz, Adjunct Associate Professor, Electrical Engineering and Computer Science; BS Marquette University ’66; MS University of Wisconsin-Milwaukee ’70 Mohammad Mahinfalah, Professor, Mechanical Engineering; BS Iowa State University ’81; MS Iowa State University ’85; Ph.D. Iowa State University ’88 Francis Mahuta Jr., Associate Professor, Civil and Architectural Engineering and Construction Management; Program Director, MS in Environmental Engineering; BS University of Wisconsin-Milwaukee ’77; MS Marquette University ’84; Ph.D. University of Wisconsin-Madison ’91; Registered Professional Engineer in the State of Wisconsin

Patrick J. Jung, Associate Professor, General Studies; BA University of Wisconsin-Whitewater ’86; A. James Mallmann, Professor, Physics and MA Marquette University ’92; Ph.D. Marquette Chemistry; Recipient, R. D. Peters Endowed University ’97 Professorship in Materials Science; BS University Matey G. Kaltchev, Professor, Physics and of Wisconsin-Milwaukee ’65; MS University of Chemistry; Chairman, Physics and Chemistry; BS Wisconsin-Milwaukee ’68; Ph.D. Marquette University of Sofia ’82; MS University of Sofia ’83; University ’77 Ph.D. University of Wisconsin-Milwaukee ’99 Carol Mannino, Associate Professor, Rader School Richard Kelnhofer, Assistant Professor, Electrical of Business; BBA Southern Methodist ’80; MPA Engineering and Computer Science; Program University of Texas ’81; Registered CPA in Director, Electrical Engineering Technology; BS Wisconsin University of Wisconsin-Milwaukee ’87; MS Dragomir Marinkovich, Assistant Professor, Marquette University ’92; Ph.D. Marquette University ’97; Registered Professional Engineer in Mechanical Engineering; Program Director, Mechanical Engineering Technology; BS University the State of Wisconsin of Illinois ’86; MS University of Illinois ’92; Ph.D. R. David Kent, Associate Professor, General Studies; Marquette University ’06 Chairman, General Studies; BA Marquette University ’83; MA Marquette University ’85; Ph.D. Nazieh Masoud, Assistant Professor, Physics and Chemistry; BS University of Jordan ’94; MS University of Wisconsin-Milwaukee ’96 University of Jordan ’97; Ph.D. Stevens Institute of Jeffrey B. Korn, Professor, Physics and Chemistry; Technology ’04 BS University of Wisconsin-Milwaukee ’78; MS Cheryl A. Maurana, Adjunct Professor, General University of Wisconsin-Milwaukee ’82 Studies, Electrical Engineering and Computer Science; BA Seton Hill College ’72; MS Perdue University ’74; Ph.D. Purdue University ’76

369

Steven P. Mayer, Professor, Physics and Chemistry; BS University of Wisconsin-Milwaukee ’71; MS University of Wisconsin-Milwaukee ’74; Ph.D. University of Wisconsin-Milwaukee ’79 Michael McGeen, Professor, Civil and Architectural Engineering and Construction Management; BS University of Wisconsin-Milwaukee ’76; MS University of Wisconsin-Milwaukee ’80; Registered Professional Architect in the State of Wisconsin Russell D. Meier, Associate Professor, Electrical Engineering and Computer Science; BS Iowa State University ’92; MS Iowa State University ’94; Ph.D. Iowa State University ’98

Carolyn “Kelly” Ottman, Associate Professor, Rader School of Business; BS University of Wisconsin-La Crosse ’86, M.P.A./M.A. University of WisconsinMadison ’90, Ph.D. University of WisconsinMadison ’99 Dudley M. Outcalt, Associate Professor, Civil and Architectural Engineering and Construction Management; BS U.S. Naval Academy ’73; MS University of Cincinnati ’84; MS Northwestern ’87; Ph.D. University of Wisconsin-Milwaukee ’09

Gulbin Ozcan, Assistant Professor, Civil and Architectural Engineering and Construction Management; BS Middle Eastern Technical University ’06; MS Middle Eastern Technical Richard R. Mett, Associate Professor, Physics and University ’08; Ph.D. Florida International Chemistry; BS Milwaukee School of Engineering ’82; University ’11 MS University of California-Berkeley ’85; Ph.D. University of Wisconsin-Madison ’90 Jane Paige, Assistant Professor, School of Nursing; BSN University of Wisconsin-Eau Claire ’80; MSN Katarina Midelfort, Assistant Professor, Physics Concordia University ’02 and Chemistry; BS Carnegie Mellon University ’94; MS University of Illinois at UrbanaJohn E. Pakkala, Associate Professor, Mechanical Champaign ’00; Ph.D. Massachusetts Institute of Engineering; BS Michigan State University ’97; Technology ’04 MS Michigan Technological University ’99; Ph.D. Michigan Technological University ’01 Sharon Morris-Pruitt, Assistant Professor, School of Nursing, BSN University of Hawaii-Manoa ’90; Vipin Paliwal, Associate Professor, Physics and MS University of Hawaii-Manoa ’93 Chemistry; BS Guru Nanak University, Amritsar, India ’77; MS Kurukshetra University, Karnal, India Joerg Mossbrucker, Associate Professor, Electrical ’80; Ph.D. Postgraduate Medical Research Institute, Engineering and Computer Science; BS University Chandigarh, India ’85 of Kaiserslautern Germany ’92; MS University of Kaiserslautern Germany ’94; Ph.D. University of Matthew A. Panhans, Professor, Mechanical Kaiserslautern Germany ’97 Engineering; Chairman, Mechanical Engineering; BS Marquette University ’75; MS Marquette Joseph C. Musto, Professor, Mechanical University ’80; Ph.D. Marquette University ’90; Engineering; Program Director, Mechanical Registered Professional Engineer in the State Engineering; BS Clarkson University ’89; MEng of Wisconsin Rensselaer Polytechnic Institute ’90; Ph.D. Rensselaer Polytechnic Institute ’94; Registered Michael Payne, Assistant Professor, Rader School of Professional Engineer in the State of Wisconsin Business, Program Director, Business Management; BA Communication, Bowling Green State Bharathwaj Muthuswamy, Assistant Professor, University ’86; MA Communication, University of Electrical Engineering and Computer Science; Cincinnati ’89; Ph.D., University of Arizona ’94 BS University of California – Berkeley ’02; MS University of California – Berkeley ’05; Owe G. Petersen, Professor, Electrical Engineering Ph.D. University of California – Berkeley ’09 and Computer Science; Chairman, Electrical Douglas Nelson, Instructor, Civil and Architectural Engineering and Computer Science; BS University of Wisconsin ’63; MS University of Pennsylvania ’65; Engineering and Construction Management; BS Ph.D. University of Pennsylvania ’71 Cornell University ’81; MAT Cornell University ’85 Leah C. Newman, Assistant Professor, Mechanical Engineering; BS University of Wisconsin-Madison ’91, MS University of Wisconsin-Madison ’93; Ph.D. University of Wisconsin-Madison ’97 Anne-Marie L. Nickel, Associate Professor, Physics and Chemistry; BA Lawrence University ’97; Ph.D. University of Wisconsin-Madison ’02

Vincent Prantil, Associate Professor, Mechanical Engineering; BS Cornell University ’81; MS Cornell University ’84; Ph.D. Cornell University ’92 Cory Prust, Assistant Professor, Electrical Engineering and Computer Science; BS Milwaukee School of Engineering ’01; Ph.D. Purdue University ’06

Christopher Raebel, Assistant Professor, Civil and Mary Jo Noble, Assistant Professor, School of Nursing; BS Carroll College ’88; MSNEd., University Architectural Engineering and Construction Management; BS Milwaukee School of Engineering of Phoenix ’06 ’94; MS Penn State ’00; Registered Professional Robert J. Olsson, Associate Professor, Physics and Engineer in the states of Wis., Penn., Minn., Mich., Chemistry; BS University of Illinois at UrbanaN.D., Fla., S.C.; SE in Ill. and Mass. Champaign ’91; Ph.D. Michigan State University ’00 Stephen Rather, Adjunct Associate Professor, Bruce O’Neill, Assistant Professor, Mathematics; BS Mechanical Engineering; BS Michigan Michigan State University ’73; MS University of Technological University ’69; MBA University of Wisconsin-Milwaukee ’75; Ph.D. University of Wisconsin-Madison ’76; MS Milwaukee School of Wisconsin-Milwaukee ’91 Engineering ’91

370

Douglas L. Reed, Professor, Rader School of Joyce M. Solochek, Instructor, Physics and Business; BS Indiana University ’58; MBA Texas Chemistry; BS University of Wisconsin-Madison ’66; Technological College ’61; JD Harvard Law School ’71 MBA Marquette University ’83 Robert Rizza, Associate Professor, Mechanical Engineering; BS Illinois Institute of Technology ’87; MS Illinois Institute of Technology ’89; Ph.D. Illinois Institute of Technology ’95 Luis A. Rodriguez, Assistant Professor, Mechanical Engineering; BS University of California-San Diego ’00; MS University of Wisconsin-Madison ’04; Ph.D. University of California-Irvine ’10 Sheila Ross, Assistant Professor, Electrical Engineering and Computer Science; BS Marquette University ’97; MSE University of Wisconsin – Madison ’98; Ph.D. University of Wisconsin – Madison ’06 Darrin Rothe, Assistant Professor, Electrical Engineering and Computer Science; BS Milwaukee School of Engineering ’92; MS Marquette University ’98; Ph.D. Arizona State University ’02; Registered Engineer in the State of Wisconsin Matt Schaefer, Assistant Professor, Mechanical Engineering; BS Marquette University ’84; MS Marquette University ’90; Ph.D. Marquette University ’97; Registered Professional Engineer in the State of Wisconsin

Douglas C. Stahl, Professor, Civil and Architectural Engineering and Construction Management; BSE Princeton University ’85; MS University of Wisconsin-Madison ’88; Ph.D. University of Wisconsin-Madison ’96; Registered Professional Engineer in the State of Wisconsin Carma M. Stahnke, Associate Professor, General Studies; BA Southern Illinois University at Edwardsville ’88; MA Bowling Green University ’91; Ph.D. Southern Illinois University ’00 John A. Starr, Associate Professor, Electrical Engineering and Computer Science; BS University of Wisconsin-Madison ’69; MS University of Wisconsin-Madison ’71 Robert A. Strangeway, Professor, Electrical Engineering and Computer Science; BS Milwaukee School of Engineering ’79; MS Marquette University ’86; Ph.D. Marquette University ’96 Mary Jo Suminski, Instructor, Rader School of Business; BS University of Wisconsin-Milwaukee ’75; Milwaukee School of Engineering ’09; MCT, MCSA, MCSE

Michael J. Swedish, Associate Professor, Mechanical Engineering; BS Marquette University Anders H. Schenstrom, Professor, Physics and ’75; MS Marquette University ’78; Registered Chemistry; MS Linkoping Institute of Technology, Sweden ’80; MS University of Wisconsin-Milwaukee Professional Engineer in the State of Wisconsin ’82; Ph.D. University of Wisconsin-Milwaukee ’87 Thomas J. Swiontek, Professor, Electrical Engineering and Computer Science; BS Marquette Walter Schilling, Assistant Professor, Electrical University ’69; Ph.D. Marquette University ’75 Engineering and Computer Science; BS Ohio Northern University ’97; MS University of Toledo Christopher Taylor, Associate Professor, Electrical ’98; Ph.D. University of Toledo ’07 Engineering and Computer Science; BS South Dakota State University ’92; MS Purdue University Larry J. Schmedeman, Professor, Rader School of Business; Program Director, International Business; ’94; Ph.D. Purdue University ’98 BS University of Wisconsin-Milwaukee ’72; BIM Bruce R. Thompson, Professor, Rader School of Milwaukee School of Engineering ’82; MBA Business; BA Amherst College ’63; MS University of University of Wisconsin-Whitewater ’88 Pennsylvania ’67; Ph.D. University of Pennsylvania ’73; MBA University of Chicago ’81 Ruth A. Schwartz, Instructor, Physics and Chemistry; BS University of Wisconsin-Madison Hue V. Tran, Associate Professor, Electrical ’85; MS University of Wisconsin-Milwaukee ’88 Engineering and Computer Science; BS University of Wisconsin-Madison ’71; MS University of Mark J. Sebern, Professor, Electrical Engineering and Computer Science; Program Director, Software Wisconsin-Madison ’73; Registered Professional Engineer in the State of Wisconsin Engineering; BS Marquette University ’72; Ph.D. Marquette University ’74; Registered Professional Matthew J. Traum, Assistant Professor, Mechanical Engineer in the State of Wisconsin Engineering; BS University of California-Irvine ’01; MS Massachusetts Institute of Technology ’03; Faisal Shaikh, Assistant Professor, Physics and Ph.D. Massachusetts Institute of Technology ’07 Chemistry; BS Chemical Engineering, Institute of Chemical Technology ’02, Mumbai, India; Ph.D. John Traxler, Assistant Professor, Rader School of Chemical Engineering, Texas A&M University ’06 Business; Program Director, MS in Medical Informatics; BS University of Wisconsin-Madison Reza Shaker, Adjunct Professor, Physics and ’78, ’81; MD Medical College of Wisconsin ’89; MBA Chemistry, Electrical Engineering and Computer Science; MD Tehran University Medical School ’75 University of Wisconsin-Milwaukee ’99; MS Milwaukee School of Engineering and Medical Nadezhda Shalamova, Assistant Professor, General College of Wisconsin ’00 Studies; Program Director, Technical Communication; MA Teaching Foreign Languages, Charles Tritt, Associate Professor, Electrical Tomsk State Pedagogical University, Tomsk, Russia Engineering and Computer Science; Program Director, Biomedical Engineering; BS Ohio State ’96; Ph.D. Rhetoric and Professional University ’82; MS Ohio State University ’86; Ph.D. Communication, New Mexico State University ’08 Ohio State University ’94

371

Matthew Trussoni, Assistant Professor, Civil and Architectural Engineering and Construction Management; BS Milwaukee School of Engineering ’03; MS University of Miami ’05; Ph.D. University of Miami ’09; Registered Architect and Registered Professional Engineer in the State of Florida Benjamin Uphoff, Assistant Professor, Electrical Engineering and Computer Science; BS University of Wisconsin-Stevens Point ’98; MS University of Wisconsin-Madison ’01; Ph.D. Iowa State University ’06 Jay F. Urbain, Assistant Professor, Electrical Engineering and Computer Science; BS Northern Illinois University ’79; BS University of IllinoisChicago ’81; MS Illinois Institute of Technology ’87; MBA University of Wisconsin-Madison; Ph.D. Illinois Institute of Technology ’08 Hermann Viets, Professor, Mechanical Engineering; President, Milwaukee School of Engineering; BS Polytechnic University ’65; MS Polytechnic University ’66; Ph.D. Polytechnic University ’70 Blake Wentz, Assistant Professor, Civil and Architectural Engineering and Construction Management; Program Director, Construction Management; BS University of Nebraska-Lincoln ’99; MS University of Nebraska-Lincoln ’04 Renee Wenzlaff, Assistant Professor, School of Nursing, BSN Marion College ’91, MSN Marquette University ’98; DNP Concordia University ’09 Gilbert C. White, Adjunct Professor, Physics and Chemistry, Electrical Engineering and Computer Science; AB University of North Carolina ’66; MS University of North Carolina ’71; MD University of North Carolina ’71; William R. Wiener, Adjunct Professor, Physics and Chemistry, Electrical Engineering and Computer Science; BA Cleveland State University ’69; MA Western Michigan University ’70; MA Cleveland State University ’78; Ph.D. Kent State University ’85 Jay Wierer, Assistant Professor, Electrical Engineering and Computer Science; BS University of Wisconsin-Madison ’01; MS University of Wisconsin-Madison ’04; Ph.D. University of Wisconsin-Madison ’08 Katherine Wikoff, Associate Professor, General Studies; BA Wright State University ’81; MA University of Wisconsin-Milwaukee ’86; Ph.D. University of Wisconsin-Milwaukee ’92 Stephen M. Williams, Professor, Electrical Engineering and Computer Science; Program Director, Electrical Engineering; BS University of Missouri ’85; MS University of Missouri ’88; Ph.D. University of Missouri ’90; Registered Professional Engineer in the State of Wisconsin Josanne Wollenhaupt, Associate Professor, School of Nursing; Program Director, Nursing; BSN Marquette University ’90; MSN Marquette University ’96; Ph.D. University of WisconsinMilwaukee ’10

372

Jeong-Han Woo, Assistant Professor, Civil and Architectural Engineering and Construction Management; BE Architecture, Kyung Won University ’96; MS Construction Management, Texas A&M ’00; Ph.D. Architecture, Texas A&M ’05 Glenn T. Wrate, Professor, Electrical Engineering and Computer Science; BS Michigan Technological University ’84; MS Michigan Technological University ’86; Ph.D. Michigan Technological University ’96; Registered Professional Engineer in the State of California Chunping Xie, Associate Professor, Mathematics; MS Beijing Normal University ’88; MA University of Alabama ’01; Ph.D. University of Alabama ’01 Charlene A. Yauch, Associate Professor, Mechanical Engineering; Program Director, Industrial Engineering; BS Purdue University ’88; MS University of Wisconsin-Madison ’97; MS University of Wisconsin-Madison ’00; Ph.D. University of Wisconsin-Madison ’00; Registered Professional Engineer in the State of Wisconsin Yvonne I. Yaz, Professor, Mathematics; BSEE Bosphorus University ’80; BS Bosphorus University ’82; MS Bosphorus University ’84; Ph.D. University of Arkansas at Fayetteville ’91 Linda K. Young, Associate Professor, School of Nursing; BSN University of Wisconsin-Milwaukee ’76; MSN Marquette University ’88; Ph.D. University of Wisconsin-Madison ’10 John A. Zachar, Professor, Civil and Architectural Engineering and Construction Management; Program Director, Architectural Engineering; BS University of Wisconsin-Milwaukee ’71; MS University of Wisconsin-Milwaukee ’73; Ph.D. University of Wisconsin-Milwaukee ’91; Registered Professional Engineer in the State of Wisconsin

Professors Emeriti Edward Allan, Professor Emeritus, Mechanical Engineering; BS Lafayette College ’43; MS Wayne State University ’56 Robert W. Braun, Professor Emeritus, Chemistry; BEd Wisconsin State University-Whitewater ’49; MEd Marquette University ’63; Ed.D. Marquette University ’71 Mary Louise Brown, Professor Emerita, School of Nursing; BS University of Maryland College Park ’77; MSN Catholic University of America ’83; Ph.D. University of Pittsburgh ’90, MS in Divinity Lutheran School of Theology at Chicago ‘06 Bernard R. Budny, Professor Emeritus, Electrical Engineering and Computer Science; BS Marquette University ’51; MS University of WisconsinMadison ’57; Registered Professional Engineer in the State of Wisconsin Vincent Canino, Professor Emeritus, Electrical Engineering and Computer Science; BS Milwaukee School of Engineering ’67; MS Milwaukee School of Engineering ’69; Ph.D. Marquette University ’76; Registered Professional Engineer in the State of Wisconsin Michael T. Chier, Professor Emeritus, Electrical Engineering and Computer Science; BS Milwaukee School of Engineering ’64; MS University of Missouri ’69; Ph. D. University of Missouri ’71; Registered Professional Engineer in the State of Wisconsin Richard G. Cook, Professor Emeritus, Civil and Architectural Engineering and Construction Management; BS University of Wisconsin-Madison ’56; MS Milwaukee School of Engineering ’85; Registered Professional Engineer and Architect in the State of Wisconsin Carol B. Diggelman, Professor Emeritus, Civil and Architectural Engineering and Construction Management; BS University of Wisconsin-Milwaukee ’65; MS University of Wisconsin-Milwaukee ’86; Ph.D. University of Wisconsin-Madison ’98

Roger J. Frankowski, Professor Emeritus, General Studies; BA Marquette University ’65; MA Marquette University ’68; MEd Marquette University ’86; Ph.D. Marquette University ’92 Matthew W. Fuchs, Professor Emeritus, Civil and Architectural Engineering and Construction Management; BS Milwaukee School of Engineering ’63; University of Wisconsin-Milwaukee ’79; Doctor of Engineering (Honorary) Milwaukee School of Engineering ’05; Registered Professional Engineer in the State of Wisconsin Stanley J. Guberud, Professor Emeritus, Mathematics; BS Wisconsin State University-Eau Claire ’52; MS Marquette University ’61 Paul A. Gutting, Professor Emeritus, Mechanical Engineering; BS Purdue University ’47; MS University of Wisconsin-Milwaukee ’66; Registered Professional Engineer in the State of Wisconsin Veronica S. Haggerty, Professor Emerita, General Studies; BEd University of Wisconsin-Milwaukee ’72; MS University of Wisconsin-Milwaukee ’78 John Micheal Hassler, Professor Emeritus, BS Almeda College ’01; MA Education Marian College ’06; Registered Professional Engineer in the State of Wisconsin; Certified Professional Designer in the State of Wisconsin Harvey Hoy, Associate Professor Emeritus, Mechanical Engineering; BS University of Wisconsin-Madison ’60 Charles F. James Jr., Professor Emeritus, Mechanical Engineering; BS Purdue University ’58; MS Purdue University ’60; Ph.D. Purdue University ’63 Dorothy J. Johnson, Professor Emerita, Mathematics; BS Central Michigan University ’51; MS Marquette University ’80 Janet Klein, Professor Emerita, Mathematics; BA Mount Mary College ’51; MA Marquette University ’54

Robert L. Kleppin, Professor Emeritus, General Studies; BA Marquette University ’65; MA James Eckl, Professor Emeritus, Electrical Engineering Marquette University ’67 and Computer Science; BS Marquette University Ronald A. Kobiske, Professor Emeritus, Physics and ’57; MS University of Wisconsin ’62; Registered Chemistry; BS Indiana Institute of Technology ’61; Professional Engineer in the State of Wisconsin MS New Mexico Highlands University ’63; Ph.D. George L. Edenharder, Professor Emeritus, University of Wisconsin-Milwaukee ’76 Mathematics; BEd University of WisconsinBrigita E. Kore-Kakulis, Professor Emerita, Physics Whitewater ’66; MS Marquette University ’68 and Chemistry; BS University of WisconsinFrank Evans, Professor Emeritus, Electrical Madison ’54; MS Marquette University ’62 Engineering and Computer Science; BS University Lawrence B. Korta, Professor Emeritus, Mechanical of New Mexico ’62; MS University of Houston ’74 Engineering; BS Marquette University ’62; John H. Farrow, Professor Emeritus, Mechanical MS Marquette University ’65 Engineering; BS Marquette University ’56; MS Peter K.F. Kuhfittig, Professor Emeritus, Marquette University ’80; Registered Professional Mathematics; BS University of WisconsinEngineer in the State of Wisconsin Milwaukee ’65; MS University of WisconsinPaul E. Feuerstein, Professor Emeritus, Civil and Milwaukee ’67; Ph.D. George Peabody College of Architectural Engineering and Construction Vanderbilt University ’72; Doctor of Engineering Management; BS Indiana Institute of Technology ’58; (Honorary) Milwaukee School of Engineering ’05 MS University of Wisconsin-Milwaukee ’82; Registered Professional Engineer in the State of Wisconsin 373

George P. Lephardt, Professor Emeritus, Rader School of Business, BA University of Delaware ’69; MA University of Wisconsin-Milwaukee ’71; Ph.D. University of Tennessee ’76 Janina Levy, Professor Emerita, Chemistry; BS Copernicus University in Torun, Poland ’55; MS University of Warsaw ’57

Hans Schroeder, Professor Emeritus, Electrical Engineering and Computer Science; BS Milwaukee School of Engineering ’55; MS University of Wisconsin-Madison ’70; Registered Professional Engineer in the states of Wisconsin and Ohio

John G. Slater, Professor Emeritus, Mechanical Engineering; BS University of Wisconsin-Madison ’48; MS University of Wisconsin-Madison ’50; Ph.D. Susannah P. Locke, Professor Emerita, General University of Wisconsin-Madison ’52; Registered Studies; BS Marquette University ’58; MA Marquette Professional Engineer in the State of Wisconsin University ’64 Judith Steininger, Professor Emerita, General Arthur B. Michael, Professor Emeritus, Mechanical Studies; BA University of Kentucky ’65; MA Engineering; BS University of Wisconsin-Madison ’44; Boston College ’73 MS University of Minnesota ’47; ScD Massachusetts Thomas J. Tillman, Professor Emeritus, Electrical Institute of Technology ’52; Registered Professional Engineering and Computer Science; BS Purdue Engineer in the State of Wisconsin University ’49; MBA University of Toledo ’69; MS Thomas D. Pease, Professor Emeritus, Rader School Marquette University ’86 of Business; BS University of Denver ’48; MBA Paul H. Unangst, Professor Emeritus, Mechanical University of Denver ’52 Engineering; BS and AB University of Illinois ’56; Mary Ann Perdue, Professor Emerita, General MS Milwaukee School of Engineering ’78; Registered Studies; BS Valparaiso University ’67; MS University Professional Engineer in the State of Wisconsin of Wisconsin-Milwaukee ’77 Lloyd E. Vlies, Professor Emeritus, Mechanical Paul P. Perdue, Professor Emeritus, Mechanical Engineering; BS University of Wisconsin-Madison Engineering; BS Iowa State University ’48; MBA ’59; MS University of Wisconsin-Milwaukee ’62; University of Wisconsin-Madison ’56 Registered Professional Engineer in the State of Wisconsin Donald W. Petzold, Professor Emeritus, Electrical Engineering and Computer Science; BS University of Wisconsin-Madison ’50; MS University of Wisconsin-Madison ’68; Ph.D. Marquette University ’80 Constantin Popescu, Professor Emeritus, General Studies; BA Bucharest University ’54; MA University of Wisconsin-Milwaukee ’72; Ph.D. University of Wisconsin-Milwaukee ’73; MLS University of Wisconsin-Milwaukee ’77 Steven E. Reyer, Professor Emeritus, Electrical Engineering and Computer Science; BS University of Wisconsin-Milwaukee ’72; MS University of Wisconsin-Milwaukee 73; Ph.D. Marquette University ’78; Registered Professional Engineer in the State of Wisconsin Hadi M. Saadat, Professor Emeritus, Electrical Engineering and Computer Science; Dipl. Faraday Engineering College ’63; MS Illinois Institute of Technology ’66; Ph.D. University of Missouri ’72 Robert P. Schilleman, Professor Emeritus, Mathematics; BS University of WisconsinMadison ’59; MS Marquette University ’76 Andrew B. Schmirler, Professor Emeritus, Mathematics; BS St. Norbert College ’57; MA Marquette University ’75 Harry A. Schopler, Professor Emeritus, Physics and Chemistry; BS University of Wisconsin-Madison ’50; MS University of Wisconsin-Milwaukee ’85

374

Business and Industrial Advisory Committees of MSOE The first advisory committee at MSOE was formed in 1913. Dr. Charles P. Steinmetz, who was later acknowledged for his genius in AC electrical machinery and circuit research, was among those first committee members. Listed below are the Academic Industrial Advisory Committees for undergraduate programs and the chairperson for each. Additional committees comprised of industrial and business representatives also exist to advise in other areas of the university such as recruitment and finance. ARCHITECTURAL ENGINEERING Norbert Schmidt ’79 President Wenninger Co. Inc.

ELECTRICAL ENGINEERING TECHNOLOGY Brian Petted ’83, ’85 Vice President of Engineering L.S. Research Inc.

BIOMEDICAL ENGINEERING Kevin Ehlers Radiation Oncology Medical College of Wisconsin

ENGINEERING Dr. Cynthia Barnicki Professor and Program Director Milwaukee School of Engineering

BIOMOLECULAR ENGINEERING Asif Bakar CEO-Chair Xorbix Technologies Inc.

INDUSTRIAL ENGINEERING Kim Pettiford ’93, ’99 Director of HR Operations Harley-Davidson Co.

RADER SCHOOL OF BUSINESS Steven Bialek, Ph.D. Associate Professor and Chairman, Milwaukee School of Engineering

MECHANICAL ENGINEERING Chris S. Lange ’99 Engineering Manager Pentair Water

COMPUTER ENGINEERING Jeffrey Zingsheim ’90, ’97 Engineering Manager - Hardware Honeywell Automation and Control Solutions

MECHANICAL ENGINEERING TECHNOLOGY Dr. Dragomir C. Marinkovich Assistant Professor and Program Director Milwaukee School of Engineering

CONSTRUCTION MANAGEMENT John Schultz Vice President Jansen Construction Group Inc.

NURSING Dr. Debra Jenks Associate Professor and Chairperson School of Nursing Milwaukee School of Engineering

ELECTRICAL ENGINEERING Mary Jo Vander Heiden Mag-Num Consulting Services LLC

SOFTWARE ENGINEERING Bernie Newman Director, Software Engineering Astronautics Corporation of America TECHNICAL COMMUNICATION Dianne Bender ’91 Information Architect Red Prairie

375

INDEX A Academic administration, 367 Academic advising, 25 Academic calendar, 4 Academic honesty, 21-23 Academic records, see FERPA Academic standing, 29 Accreditation, 9 Add/drop classes, 27 Admission, 14-16, 26 Advising, 25 Affiliations, 9 Air Force ROTC, 222 Appeals processes, 22-23, 30, 44 Applied Technology CenterTM (ATC), 45-49 Architectural engineering, 55-62 Army ROTC, 223 Attendance policy, 27 Auditing courses, 31 B Biomedical engineering, 116-123 Biomolecular engineering, 206-210 Business management, 85-95, 111 Business, Rader School of, 83-84 Business and Industrial Advisory Committees, 375 Business Excellence Consortium (BEC), 20 C Calendar, academic, 4 Campus map, 379 Civil and Architectural Engineering and Construction Management Department, 54 Civil Engineering, 63-72 Center for Entrepreneurship, 49 Center for Working Professionals and Graduate Studies, 18 Certificate programs, 19 Certifications, 113 Chemistry Minor, 213 Chemistry and Physics Department, 204 376

Communication, technical, 159-166 Computer engineering, 124-127 Computer science (see computer engineering, software engineering or management information systems) Constituents, 7 Construction management, 73-78 Course descriptions, 226-360 Credit by examination, 32 Czech study-abroad program, 12 D Deanâ€™s List, 31 Degree programs, 10-11 Directed study, 31 Disability Services, 49 Double-major programs, 34, 216-218 Drop/add classes, 27 Dual-degree programs, 216 E Electrical engineering, 128-135 Electrical Engineering and Computer Science Department, 114 Electrical engineering technology, 141-147 Engineering programs Architectural engineering, 55-62 Biomedical engineering, 116-123 Biomolecular engineering, 206-210 Civil Engineering, 63-72 Computer engineering, 124-127 Electrical engineering, 128-135 Engineering, 13, 173-177, 219 Industrial engineering, 178-182 Mechanical engineering, 183-187 Software engineering, 148-153 Structural engineering, 216, 218 Engineering or engineering technology, 13 Engineering technology programs Electrical, 141-147 Mechanical, 191-196

English as a second language (ESL) program, 16-17, 157 Enrollment Management Department, 14-20 Enrollment status requirement, 26 Entrepreneurship, Center for, 49 ESL Program, 16-17, 157 Export Assistance Center, 52 F Faculty, list of full time, 367 Family Educational Rights and Privacy Act (FERPA), 24 Fees, 36 Final Exam Policy, 33 Financial assistance, 36-44 Foreign language, 157 Freshmen-to-masterâ€™s degree in civil engineering, 63-72, 217 G General Studies Department, 154 German studies minor, 167-168 German study-abroad program, 12, 136-140, 188-190 Goethe House, 52 GPA (grade point average) Cumulative, 28 Major, 29 Grade replacement, 31 Grading system, 28 Graduate studies, 219-221 Graduation procedures, 35 Graduation requirements, 34 Grievance process, 23 Grohmann Museum, 51 Guarantee, MSOE, 8 H History, MSOE, 8 Honors List, 31 Humanities and social sciences, 154 I Incomplete grades, 28 Independent study, 32 India study-abroad program, 12 Industrial engineering, 178-182 Information Technology Department (IT), 50

Institutional Learning Outcomes, 6 Institutional Review Board, 23-24 International business, 96-102 International study programs (see study abroad) L Laptop (notebook) computers, 50 Library, 45 M Major grade point average, 29 Management information systems, 103-110 Map, 379 Marketing and entrepreneurship minor, 112 Mathematics Department, 169 Mechanical engineering, 183-187 Mechanical Engineering Department, 172 Mechanical engineering technology, 191-197 Microsoft certifications, 113 Midterm progress report, 30 Milwaukee U.S. Export Assistance Center, 52 Minors, 34, 111-112, 166-167, 171, 213-214 Mission, MSOE, 6 N Navy ROTC, 224 Notebook computers, 50 Not reported (NR) grade, 28 Nursing, School of, 197 Nursing B.S., 199-203 P Physics and Chemistry Department, 204 Physics minor, 214-215 Prerequisite policy, 25 Privacy, academic (FERPA), 24 Professor Emeriti, 373-374 Project Lead The Way, 52

377

R Rader School of Business, 83 Re-admission policy, 26 Records, academic (FERPA), 24 Refund policies/schedule, 38-42 Regents, Board of, 362-364 Repeating courses, 31 Research, 45-49 ROTC, 222 S Scholars Program, (see University Scholars Program, 11) School of Nursing, 197 Software engineering, 148-153 Structural engineering (BS/MS), 216, 218 Student Advancement Committee, 30 Student Accounts (Financial Aid Office), 36-44 Student integrity, 21 Student responsibility, 25 Study-abroad, 12, 32, 96, 102, 136-140, 188-190 Suspension, 30 T Technical communication, 159-166, 216-218 Technology package, 50 Transfer students, 15 Tuition and fees, 36-44 Tuition refund schedule, 39-41 Two-degree programs, 216-218 Double-major program, 34, 216-218 Dual-degree program, 216-218 U Undergraduate admission, 14-16 University Scholars Program, 11 U.S. Export Assistance Center, 52 W Withdrawal from all classes, 27 Working Professionals and Graduate Studies, Center for, 18

378

CAMPUS MAP

For admission information call (800) 332-6763 (414) 277-6763 (in Milwaukee area) or visit our website at www.msoe.edu

379

Milwaukee School of Engineering admits male and female students of any race, color, national and ethnic origin to all the rights, privileges, programs and activities generally accorded, or made available, to students at the university. It does not discriminate, on the basis of race, color, national and ethnic origin, religion, age, gender, sexual orientation, marital status or disability in administration of its educational policies, admission policies, scholarship and loan programs, and athletic and other institutionally administered programs. MSOE also maintains its long-standing policy as an Equal Opportunity/Affirmative Action Employer of male and female personnel for its faculty and administrative staff. Milwaukee School of Engineering reserves the right to revise at any time, without notice, any and all programs, fees and costs stated herein in accordance with the best academic and industrial standards as recommended by its advisory committees. The right also is reserved to cancel any course or subject at any time because of insufficient registration or other valid reason.

380

Notes:

381

Notes:

382

Notes:

383

Notes:

384