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Grace Garlin Portfolio 2026

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architecture portfolio

Thomas

Bachelor of Architecture & Custom Minor in Architectural Pedagogy
grace garlin

CONTACT

(814)-330-4182

gracegarlin10@gmail.com

HARD SKILLS

Knowledge in Autodesk’s AutoCAD and Revit, Adobe designs Illustrator, Photoshop, and InDesign, and Rhino.

SOFT SKILLS

Strong desire to learn and improve on new and existing skill sets. Effective communication and time management skills, and a good team player.

PROFILE

I am a fifth-year architecture student with a strong aptitude for conceptualizing and designing innovative architectural solutions. Profucent in a range of industry standard software, I am actively seeking opportunities to gain hands-on experience and contribute to projects through work in the architectural field.

EXPERIENCE

Phillips & Associates Architects, LLC, June 2024 - Present Working in AutoCAD within all phases of the deisgn process, as well as experiecning surveying construction sites.

Architectural Teacher’s Assistant, Fall 2024

Assisted first year architecture students with conceptual and graphic skills

Architectural Education & Photography, Fall 2025 - Spring 2026

An independent study connecting the process of architectural education and photography.

Architectural Tutor, Thomas Jefferson University, January 2025 - Present

Tutor architecture students in an assortment of architectural courses

Architectural Drafting & Design Independent Study, 20202021

Worked on concerting sketches into AutoCAD drawings

INVOLVEMENT

Phi Alpha Chapter of Tau Sigma Delta Honor society in Architecture and Allies Arts, only natonal honor society for architecture and design majors that is accredited by the Association of College Honor Societies.

Teachers Assistant Position, 2020-2021

Assisted high school students in introduction courses in Architectural Drafting & Design.

EDUCATION

State College Area High School, State College, PA

High School Diploma

May 2021

Thomas Jefferson University, Philadelphia, PA

CPS: 3.91 | Deans List Fall 2021 - Present

Bachelor of Architecture (B.Arch)

Expected May 2026

In collaboration with two of my peers, this semester long project incorporates all of our previous classes into one comprehensive studio. By using what we learned in out structures and technology classes we were able to complete the design and documentation for a non-denominational sanctuary located in Blue Bell Park, Philadelphia PA

Non- Denominational Sanctuary

Fall 2024

East Elevation

Through the sculpting of the Wissahickon’s landscape with out architecture, a deeper sense of place and thought for all spiritualities is created to foster a sense of community in a setting with a strong connection between the built environment and nature

Common Room View

We chose to angle the views within the sanctuary and chaped into the trees to create a sense of tranquility on the site. Seen in the site plan, we extended the existing path to connect to out building. As you approach the building, the landscape slopes down to bring you from an elevation of +0’-0” to -5’-0” where the floor level sits. One enters into the main common space where four wings branch off from the center. Using the geometry we created exterior courtyards that connect back up to the site.

Sanctuary View

Sanctuary and chapel roofs angle upwards to open up the view into the trees, immersing the users into the natural beauty of the Wissahickon. The roofs of the support wings angle down and hit into the landscape, creating green roofs that can be accesses from the exterior. We used board formed concrete as a strong material that can successfully anchor the building into the ground and look monolithic. We also used wooden screening as a natural material that adds warmth to contrast against the concrete and as a shading device in highly glazed areas.

North Elevation

South Elevation

West Elevation

Classroom View
Atrium Section
Chapel Section

The exterior walls of our building are made of load bearing cast in place concrete which anchor into the ground to help physically and visually tie the building into the landscape. These walls reach 8 feet deep to hit the bedrock, from there, concrete piles are drilled 12 feet down to allow certain spaces to remain uninterrupted by excess columns. With the concrete, W16 steel beams are used to frame 4 feet concrete hollow core planks that act as a secondary structure, through the support wrings. 4 doot deep steel tube howe flat trusses are used in the sanctuary and chapel as a way to keep those spaces uninterrupted. The top bar of these trusses extent over the structural concrete wall to support the roof overhang of the sanctuary and chapel. We decided to use a VAV system for our HVAC to provide precise climate control by varying the airflow to different zones winthin the building.

3" METAL DECKING

6" RIGID INSULATION

3/4" PLYWOOD

1" METAL ROOFING

HVAC BEHIND

4' DEEP STEEL TUBE

HOWE FLAT TRUSS

WIRE CEILING HANGERS

4" STEEL CEILING GRID

1" WOOD PANEL CEILING

BATT INSULATION

PRECAST CONCRETE

FINISHED WOOD PLATE

WOOD BLOCKING FLASHING

ROOF GUTTER

C 15x50 STEEL CHANEL

1" WOODEN PLANK SOFFIT

TRUSS TOP BAR EXTENSION

EMBEDDED #8 STEEL REBAR

4" RIGID INSULATION

18" CAST IN PLACE CONCRETE

WELDED STEEL TO STEEL CONNECTION

WIRE CEILING HANGERS

4" TWO PART STEEL CEILING GRID

EMBEDED #8 STEEL REBAR

16" CAST IN PLACE CONCRETE

6" RIGID INSULATION

5/8" GYPSUM BOARD

1" WOOD PANELING

1" WOOD PANEL CEILING

4' DEEP STEEL TUBE HOWE FLAT TRUSS

BATT INSULATION

12 MIL PLASTIC VAPOR BARRIER

6" CAST IN PLACE CONCRETE

6" RIGID INSULATION

PRECAST CONCRETE

METAL STUDS WITH SCREWS

COMPACT GRAVEL INFILL

WELDED STEEL TO STEEL CONNECTION

WIRE CEILING HANGERS

4" TWO PART STEEL CEILING GRID

1" WOOD PANEL CEILING

4' DEEP STEEL TUBE HOWE FLAT TRUSS

BATT INSULATION

PRECAST CONCRETE

METAL STUDS WITH SCREWS

1" METAL ROOFING

3/4" PLYWOOD

6" RIGID INSULATION

3" METAL DECKING

METAL FLASHING

1 1/2"x 1 3/4" STEEL ANGLE

WOOD BLOCKING

1" WOODEN PLANK SOFFIT

ROOF GUTTER

C 15x50 STEEL CHANEL

METAL STUDS

TRUSS TOP BAR EXTENSION

BEARING PLATE

EMBEDDED #8 STEEL REBAR

4" RIGID INSULATION

WIRE HANGERS

18" CAST IN PLACE CONCRETE

EXPANSION BOLT

SILICONE SEALANT

STEEL SPACER

8"x 3" MULLIONS

1' GROWTH MEDIUM

FILTER SHEET

2" DRAINAGE SYSTEM

WEATHER BARRIER

4" RIGID INSULATION

1' HOLLOW CORE CONCRETE PLANK

WIRE CEILING HANGERS

4" TWO PART STEEL CEILING GRID

1" WOOD PANEL CEILING METAL TROPH 9" GROWTH MEDIUM

4" PRECAST BOARD-FORMED CONCRETE PANEL

4" PRECAST BOARD-FORMED CONCRETE PANEL 12" CMU, GROUTED SOLID

6" DIA. STEEL COLUMN (BEYOND)

6" C.I.P. CONCRETE SLAB AIR BARRIER

4" RIGID INSULATION

6" CRUSHED STONE

4" RIGID INSULATION

W12x65 STEEL I-BEAM

2x6 ALULMINUM MULLION

INSULATED STOREFRONT GLAZING

WEATHER BARRIER ROOF MEMBRANE AIR BARRIER

FILTER SHEET GROWTH MEDIUM GRASS

2" DRAINAGE SYSTEM

1' HOLLOW CORE CONCRETE PLANK WEATHER BARRIER

6" RIDID INSULATION

4" RIGID INSULATION

6" GRADE BEAM W/ STEM WALL 12"x12" CONC. POST (BEYOND)

WIRE CEILING HANGERS

4" TWO PART STEEL CEILING SYSTEM

1" WOOD PANEL CEILING

ADJUSTABLE PEDESTAL

2" ROOFTOP PAVERS

ROOF MEMBRANE

GROWTH MEDIUM

GROWTH MEDIUM

ALUMINUM TROPH

GRASS

GROWTH MEDIUM

FILTER SHEET

2" DRAINAGE SYSTEM

WEATHER BARRIER

6" RIDID INSULATION

1' HOLLOW CORE

CONCRETE PLANK

WIRE CEILING HANGERS

4" TWO PART STEEL CEILING SYSTEM

1" WOOD PANEL CEILING

METAL ANGLES, BOLTED TO CONC.

STEEL PLATE

12" CMU, GROUTED SOLID

4" PRECAST BOARD-FORMED CONCRETE PANELS

WEATHER BARRIER

3" RIGID INSULATION

BATT INSULATION

METAL ANGLE, BOLTED TO CONC., WELDED TO I-BEAM

W12x65 I-BEAM

SILICONE SEALANT

STEEL SPACER

6"x2" ALUMINUM MULLION

Ndirande Community Hospital

One of Africa’s greatest challenges is rapid urbanization. In Malawi, the population of 18 million is projectes to double to 36 million by 2050. As cities expand into dense informal settlements, hospitals are increasingly strained, especially with just one health center serving every 42,000 people.

Our Concept:

Our design for the Ndirande Community Hospital places a strong emphasis on the patient experience, particularly how people move through the site from the moment they arrive. Rather than treating circulation as something secondary, we approached it as a central design driver. We asked ourselves: How does someone who may be stressed, sick, or unfamiliar with hospitals intuitively know where to go?

Programming:

The importance of departments lies in their ability to provide focused expertise, equipment, and resources to address specific aspects of patient health, while also ensuring continuity across the patient journey. It can be difficult for patients to navigate the programmatically rich building that is a hospital. By strategically organizing different hospital departments, the flow of the hospital is efficient for staff, patients, and guardians.

Throughout the project, the roofs are intentionally sloped towards the two central courtyards to support water management, with downspouts expressed along the facade. Outdoor seating is integrated across the site, with primary gathering areas located at the main entry points for outdoor waiting. Concrete is used as the primary structural material due to its ability to span long distances and its long-term durability. Additionally, the concrete establishes a strong visual and material connection to the planters and retaining walls used throughout the landscape

Maternity Department Entry:

Covered walkways provide privacy along the maternity wing while also creating shaded seating areas for guardians and family members. Perforated brick allows for privacy, light, and ventilation throughout patient wards.

Wayfinding:

OUTPATIET DEPARTMENT

GENERAL

MATERNITY DEPARTMENT

As patients arrive on the site, it is critical that they immediately understand where to go. Beyond the clearly defines directional pathways, signage is integrates across the front facade to reinforce intuitive circulation and guide patients and families to their required departments. By making wayfinding clear from the moment of entry, these signs help minimize confusion and reduce stress during what is often an already overwhelming experience.

Water Management:

The wet seasons in Malawi — from November to April—deliver about 95% of the country’s annual rainfall, which makes it the critical window for water collection. We are developing a rainwater collection system where water is collected from roofs, guided and filtered into two separate underground cisterns, to then be distributed to the hospital for use.

Northeast Philadelphia Mediatheque

Spring 2024

In this twelve week project I was tasked to design a multimedia library, located in Northeast Philadelphia. Through the action of pushing and pulling the facade, landscape, and massing, I designed a building which welcomes people from all sides of the site into a sade and comfortable multimedia hub.

My initial reaction to the site was the feeling of a site boundary, splitting the commercial and residential parts of the site. Along with this, Cottman Avenue felt like an intimidating road due to the quick moving traffic and lack od crosswalks. These reactions can be seen as a challenge, however, they offer up an opportunity for me to design a building that welcomes people onto the site. This led me to developing the overall massing and shape for my project. I designed my building to pull back from that intersection to best welcome people onto this site. To support this I dropped my building 5 feet below grade and designed a building overhang to pull and direct people into the main entrance.

Site Reaction Diagram

The design for my building is broken up into public spaces, supporting public spaces, and private spaces. To enter the building you process down one of the ramps and under the ten foot overhang. The first floor consists of the lobby, exhibit space, and open stacks, which are all separated from each other by sliding glass panels which allow all three spaces to feel connected. The second floor opens up to a large, open community space, which is connected to an exterior space that overlooks the site and lanscape. The third floor has a similar space on the other side of the building.

Exhibit Space Lobby Space
Open Stacks
Building Entry

As I went into designing my facade I knew I wanted to emulate the ideas I presented in my massing, where I created depth though pushing and pulling elements. To do this I designed a mesh panel system that connects to a unique mullion system. The mech is designed in three different densities to regulate the amount of light that enters the space. This allowed me to strategically organize the panels on the facade to control the light based on the program that sits behind. Each vertical mullion along the facade pushes out at one of four different depths to also control light. These two systems work together to create a layered facade with beth to it through intentional pushing and pulling.

ARCHIVES

PUBLIC MEETING ROOM

OPEN STACKS

CAP FLASHING

BEVELED PLATE

C CHANNEL

WEATHER RESISTIVE BARRIER

RIGID INSULATION

TPO MEMBRANE

CANT STRIP

I BEAM MULLION CONNECTION

FLOORING

CONCRETE

METAL DECKING

FLOOR DECK

INSULATION

DROP CEILING

DOUBLE PANE GLASS

HORIZONTAL MULLION

VERTICAL EXTRUDED MULLION

MESH PANEL

Moving into the technical design phase of this project I was required to first draft a wall section for an important part of my project. My wall section captures the ten foot overhang, the floor details, roof details, and connection details. Following the drafting of the wall section we were tasked with developing two details. I focused on the detail of the parapet roof and the detail of the connection of the mesh panels to the exturded veryical mullions.

PARAPET AND ROOF CONNECTION
D2: MESH PANEL TO MULLION CONNECTION

57'-0" WIDTH OF STAIRS: 44" REQ. - 60" PROVIDED

Life Safety & Fire Rated Assembly Exploration

NUMBER OF EXIT DOORS AT GROUND: 2 REQ. 4 PROVIDED MAX EGRESS DIST TO EXIT (GROUP B): 300 FT

COMMON PATH OF TRAVEL EGRESS PATH OF TRAVEL

EXIT 1: 46 OCC

46 OCC x 0.3" = 13.8" REQ.

72" PROVIDED

EXIT 2: 46 OCC

46 OCC x 0.3" = 13.8" REQ.

36" PROVIDED EXIT 3: 46 OCC

46 OCC x 0.3" = 13.8" REQ.

36" PROVIDED EXIT 4: 46 OCC

46 OCC x 0.3" = 13.8" REQ.

36" PROVIDED

FURTHEST TRAVEL DISTANCES:

PATH A TO EXIT 1 = 145'-4"

PATH B TO EXIT 1 = 155'-1"

PATH C TO EXIT 1 = 151'-7"

PATH D TO EXIT 2 = 157'-3"

DISTANCES BETWEEN EXITS:

EXIT 1 TO EXIT 2: 106'-0"

EXIT 1 TO EXIT 3: 110'-4"

EXIT 1 TO EXIT 4: 110'-4"

EXIT 2 TO EXIT 3: 69'-4"

EXIT 2 TO EXIT 4: 69'-4"

EXIT 3 TO EXIT 4: 73'-8"

EXIT 3

ASSIGNMENT 4: LIFE SAFETY

ASSIGNMENT 4: LIFE SAFETY

OCCUPANCY: 224 OCCUPANTS MIN. DISTANCE BETWEEN EXITS: 57'-0"

WIDTH OF STAIRS: 44" REQ. - 60" PROVIDED MAX EGRESS DIST TO EXIT (GROUP B): 300 FT

COMMON PATH OF TRAVEL

EGRESS PATH OF TRAVEL

EXIT 1: 112 OCC

112 OCC x 0.3" = 33.6" REQ. 36" PROVIDED

EXIT 2: 112 OCC

112 OCC x 0.3" = 33.6" REQ.

36" PROVIDED

TRAVEL DISTANCES:

A TO EXIT 2 = 109'-7"

B TO EXIT 2 = 118'-1"

DISTANCES BETWEEN EXITS: EXIT 1 TO EXIT 2: 73'-8"

ASSIGNMENT 4: LIFE SAFETY

For this project, I was required to design a two story office building with proper egress exits. From there I has to use the International Building Code (IBC) to calculate different aspects of the life safety code to ensture the building has the proper requirements.

This project required us to learn more about fire rated assemplies as well as progressing skills for drafting details in recit. We were required to find three assemblies on the UL website and recreate them in Revit.

UL U419

Interior Partition - Steel Stud (Non-Load-Bearing)

Fire Rating: 1 hour

System STC: 49

System Thickness: 5.375 in.

Assembly Layers:

1. 1 layer 5/8" thicl Sheetrock EcoSmart Gypsum Panel (UL Type ULIX)

2. 1 layer 1/2" resilient channel, 25 ga. (0.018"), 24" O.C.

3. 1 layer 3-1/2" steel studs, EQ20 (0.018"), 16" O.C.

4. 1 layer 3-1/2" Fiberglass insulation

5. 1 layer 5/8" Sheetrock EcoSmart Gypsum Panel (UL Type ULIX)

Assembly Notes:

- Stud sizes and insulation thickness are minimum unless otherwise stated in published assembly.

- Stud and fastener spacings are maximum unless otherwise states in the published assembly.

- Panel orientation shall be as specified in the published assembly.

- Refer to applicable codes requirements to ensure compliance prior to construction.

- Where acoustical performance is provided in an estimates range, the values are based on laboratory test data of similarly constructed assemblies.

- Where design no. indicated "per", fire rating is based on laboratory test data of the referenced similarly constructed assemblies.

UL U407

Interior Partition - Wood Stud (Non-Load-Bearing)

Fire Rating: 0.5 hour

Assignment 5: Fire Rated Assemblies

System STC: 45

System Thickness: 5.25 in.

Assembly Layers:

1. 1 layer 5/8" Sheetrock Ecosmart Firecode 30 Gypsum Panel

2. 1 layer 2"x4" Wood Studs, 16" O.C.

3. 1 layer 3-1/2" Fiberglass insulation

4. 1 layer 1/2" resilient channel, 25 ga. (0.018"), 24" O.C.

5. 1 layer 5/8" Sheetrock Ecosmart Firecode 30 Gypsum Panel

Assembly Notes:

- Stud sizes and insulation thickness are minimum unless otherwise stated in published assembly.

- Stud and fastener spacings are maximum unless otherwise states in the published assembly.

- Panel orientation shall be as specified in the published assembly.

- Refer to applicable codes requirements to ensure compliance prior to construction.

- Where acoustical performance is provided in an estimates range, the values are based on laboratory test data of similarly constructed assemblies.

- Where design no. indicated "per", fire rating is based on laboratory test data of the referenced similarly constructed assemblies.

UL H505

Steel C-Joist (Load-Bearing)

Fire Rating: 2 hours

STC: n/a System IIC: n/a System Thickness: 14 7/8 in.

Assembly Layers:

1. 1 layer 3/4" thick USG Structural Panel Concrete Subfloor (USGSP) 2. 1 layer 8" min deep, 16. ga., spaced 24" max. O.C.

Assembly Notes:

- Estimated range of acoustical performance is based on laboratory test data of similarly constructed assemblies

City Hall

Wilmington, DE

Wilmington, DE

Philadelphia, PA

In this digital photography course I had the freedom to photograph anything I wanted. Throughout the semester I focused on landscape and architecture photography in Philadelphia, PA and Wilmington, DE.

Trolly Square
Trolly Square
Boathouse Row

In addition to the digital photography course, I also took a studio photography course. In this class we explored how to photography different objects and people as well as different lighting techniques.

Turn static files into dynamic content formats.

Create a flipbook