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Systems Engineering

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Systems Engineering

Subject Guide

VCE Systems Engineering develops students’ ability to design, create and evaluate solutions using the systems engineering process. The study focuses on solving real-world problems through integrated mechanical and electrotechnological systems, combining practical skills with critical and creative thinking.

Students engage in a project-managed, iterative design process, where they investigate problems, generate and test ideas, and refine solutions. This hands-on approach builds strong capabilities in problem-solving, collaboration and project management, preparing students for future pathways in engineering, manufacturing, technology and design. A key focus of the study is ethical and sustainable design. Students consider the environmental, social and economic impacts of their solutions, as well as the factors that influence how systems are created and used. They learn to make informed design decisions that balance performance, efficiency and responsibility.

Throughout the course, students develop a deep understanding of how systems are controlled, integrated and improved through feedback, while applying engineering principles to produce functional, innovative solutions.

kerrie.ardley@haileybury.com.au

Unit focus areas

Unit 1 – Electrotechnological systems design

This unit introduces students to the systems engineering process through the design and creation of electrotechnological systems. Students explore how electrical and electronic components function within systems, including inputs, processes, outputs, control and feedback.

Students investigate the social, environmental and economic impacts of engineering solutions, with a focus on sustainable and ethical design. They apply design thinking and project management skills to design, produce, test and evaluate an operational system that addresses a real-world problem

Key knowledge includes:

the systems engineering process (investigate, design, plan, produce, evaluate)

electrotechnological components, circuits, microcontrollers and programming control and feedback systems

factors influencing system design (user needs, cost, safety, sustainability)

ethical design, including environmental, social and economic impacts

testing, diagnostics and evaluation of system performance.

Unit 2 – Mechanical Systems Design

This unit focuses on the design and production of mechanical systems using the systems engineering process. Students explore mechanical principles, components and simple machines, and how these are used to create functional systems.

Students investigate historical, cultural and contemporary developments in mechanical engineering, including Aboriginal and Torres Strait Islander perspectives, and apply inclusive design principles to create systems that meet diverse user needs.

Through hands-on projects, students design, produce and evaluate a mechanical system, considering performance, safety and usability.

Key knowledge includes:

the systems engineering process applied to mechanical systems mechanical components and principles (forces, motion, energy, simple machines, gears, linkages)

inclusive design and designing for diverse users

factors influencing system creation and use (materials, environment, safety, cost)

modelling, testing and performance analysis risk assessment and safe production practices.

Unit focus areas continued

Unit 3 – Ethical Systems Design

This unit focuses on the design and planning of an integrated and controlled system that combines mechanical and electrotechnological elements. Students apply the systems engineering process to investigate, design and begin production of a solution that responds to a real-world problem.

A key emphasis is on ethical design, where students consider environmental, social and economic impacts. Students explore energy systems, including renewable and non-renewable sources, and analyse the technologies used to generate, store and use energy.

Key knowledge includes: applying the systems engineering process to design and plan integrated systems

integration, control and feedback systems in mechanical and electrotechnological contexts

engineering principles and calculations underpinning system performance

ethical design and sustainability, including environmental, social and economic considerations

energy sources and technologies, including renewable and nonrenewable systems

analysing and evaluating energy generation, storage and efficiency.

Unit 4 – Systems production and innovative technologies

In this unit, students complete the production, testing and evaluation of their integrated and controlled system developed in Unit 3. They apply the systems engineering process to refine, troubleshoot and optimise system performance.

Students also investigate new and emerging technologies, considering how innovation influences engineered solutions and their potential future impacts.

Key knowledge includes: applying the systems engineering process to produce, test, diagnose and evaluate a system testing, diagnostics and performance analysis of systems and subsystems evaluating the system and the effectiveness of the design and production process analysing factors influencing system creation and use investigating emerging and innovative technologies and their impacts.

Pre-requisites

Students are strongly advised to complete Systems Engineering Units 1 and 2 before commencing Systems Engineering Units 3 and 4.

Assessment

Outcomes in the Units 1 and 2 course are assessed using a variety of formats, including topic tests, assignments and reports. There is an examination at the end of each semester.

For Units 3 and 4, students complete School-Assessed Task (50%), SchoolAssessed Coursework (20%), and a one-and-a-half-hour end-of-year external examination (30%).

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