Systems Design Engineering degree

Systems Design Engineering students work together on a problem on a chalkboard

Use systems thinking and turn your degree into more than the sum of its parts

Biomedical innovations such as surgical robots and remote patient monitoring. Smart cities and intelligent, automated warehouses. Self-driving cars, drones, and efficient transportation systems. The boreal forest, carbon and water cycles, human‑managed watersheds, and artificial biospheres.

What do they all have in common? They’re all systems. And with careful thought given to design, every individual piece within them works together to create a successful, cohesive whole.

In Systems Design Engineering, you’ll build your design knowledge and improve how the world functions! Take a systems approach when using your engineering, math, and science skills to find connections that advance technology and innovation.

Examine the people, materials, tools, software, and other factors involved in engineering problems, then come up with a solution that innovates and inspires. You’ll also learn to assess how one change will affect another element by using a variety of modelling, analysis, and design methods.

While studying the fundamentals of electrical, mechanical, and software engineering, as well as design methods and systems modelling, you’ll be able to choose from four specializations to become both well-rounded and focused on what interests you most.

Our project-based approach lets you apply your learning to real problems in a range of industries. With two years of paid co-op experience by the time you graduate, you’ll be ready to design comprehensive, ground-breaking solutions for the toughest engineering problems.

Systems is how we understand the world and design is how we change it.

What courses will you take?

First-year courses

You’ll take courses in calculus, linear algebra, physics, and design—building a foundation in systems thinking, user needs, and engineering problem-solving.

September to December

  • SYDE 101 – Communications in Systems Design Engineering-Written and Oral
  • SYDE 121 – Digital Computation
  • SYDE 151 – Introduction to Systems Thinking
  • SYDE 161 – Introduction to Design
  • MATH 115 – Linear Algebra for Engineering
  • MATH 117 – Calculus 1 for Engineering

January to April

  • SYDE 101L – Communications in Systems Design Engineering-Visualization
  • SYDE 152 – Introduction to Ecological Systems
  • SYDE 162 – Human Factors in Design
  • SYDE 163 – Introduction to Design 2
  • SYDE 181 – Physics 1: Statics
  • MATH 119 – Calculus 2 for Engineering

This is a sample schedule. Courses and when a course is offered may change depending on availability.

After first year

  • Your upper-year courses will cover systems modelling, simulation, human factors engineering, statistics, optimization, and machine learning, with team projects focused on solving complex problems in health, technology, and society.
  • View the courses required for your degree.

Sample upper-year courses

SYDE 261 – Culture of Design, Impacts
SYDE 263 – Engineering Prototyping
SYDE 351 – Systems Models 1
SYDE 411 – Optimization and Numerical Methods

Customize your degree in Systems Design Engineering

Explore specializations within your program to enhance your degree.

  • Human Factors & Design – Design technology and devices that are easy, safe, and comfortable for people to use.
  • Neurobiological Systems – Model the brain and nervous system using computational neuroscience to understand neural structures and processes.
  • Vision and Intelligent Systems – Examine how cameras and sensors interpret images and video across medicine, manufacturing, and environmental applications, and how that information makes robots, autonomous vehicles, and drones smarter and more capable.
  • Societal and Environmental Systems – Explore how technology affects people and the planet, focusing on creating solutions that are good for society and the environment.
  • Biomedical Systems – Apply knowledge at the intersection of engineering and medicine to study physiological systems and advance human health.
  • Sports Engineering Systems – Combine biomechanics, sensors, and design to improve athletic performance, prevent injuries, and advance sports tech.

Popular options for Systems Design Engineering students include:

Or choose one of the options available to all Engineering students.

You can add additional areas of expertise by including one or more of the minors available to all Waterloo students.

Faculty:
Faculty of Engineering

Degree:
Bachelor of Applied Science in Systems Design Engineering

Available as a co-op program?
Co-op only

Available as a regular program?
No

Available as a minor?
No

Unlimited innovation opportunities. Use a "big picture" approach to solve problems. Our grads go on to engineering consulting, project management, graduate school, start-ups, and more.

Multi-directional engineering. Learn fundamentals in electrical, mechanical, and software engineering with an overarching focus on engineering design and systems-driven thinking.

Co-op = relevant paid work experience

In the world's leading co-op program, you'll explore potential careers, learn to interview for jobs, graduate with up to two years of valuable experience — and make money!

Sample co-op job titles

  • Technical test developer
  • Intelligent systems engineer
  • Enterprise architect
  • User experience designer
  • Process engineering assistant
  • Supply chain optimization internship
  • Sustainability engineer

Co-op work-study sequence

Starting in first year, you'll normally alternate between school and work every four months, integrating your classroom learning with real-world experience. You can return to the same employer for a couple of work terms to gain greater knowledge and responsibility or work for different employers to get a broad range of experience.

Your first work term will be in the spring term after first year.

Year September to December (Fall) January to April (Winter) May to August (Spring)
First Study Study Co-op
Second Study Co-op Study
Third Co-op Study Co-op
Fourth Study Co-op Co-op
Fifth Study Study -


Download complete: Systems Design Engineering student Andrei levelled up through six co-op terms - from scripting and cloud engineering to discovering what drives him in tech and workplace culture.

Learn more about co-op →

What can I do with a degree in Systems Design Engineering?

Waterloo Systems Design Engineering graduates commonly pursue careers in business analysis, technology consulting, and applications engineering. They often utilize their interdisciplinary skills to work for manufacturing companies, accounting firms, technology companies, and more.

The careers listed below are examples of what you might be able to pursue. Through the courses you take, specializations you choose, extracurriculars, and any work experience you gain, you'll graduate with a degree that's uniquely you and be ready to pursue a career that's right for you!

Systems engineer

Bring complex systems together, making sure hardware, software, and people all work in sync. Looking at the bigger picture, you’ll help connect different components and ensure everything runs smoothly and efficiently. This role is perfect if you enjoy solving complex problems that span multiple areas of technology.

User experience (UX) designer

Design products that feel intuitive and enjoyable to use, putting people at the center of technology. Research user needs, build prototypes, and refine designs based on feedback to create seamless experiences. It’s a great fit if you’re interested in both technology and understanding how people think and interact.

Robotics systems engineer

Design systems that integrate robotics with sensors, control systems, and software, ensuring all components work together effectively. This role is perfect if you’re excited about automation and emerging technologies.

Software systems developer

Build software that connects different systems and technologies. You would design, code, and test programs that support everything from apps to large-scale platforms. This path is ideal if you enjoy programming and system-level thinking.

Human factors engineer

Design systems with human abilities and limitations in mind. You would ensure products are safe, efficient, and easy to use. This career blends psychology, design, and engineering.

Innovation consultant

Help organizations solve problems and develop new ideas. You would analyze systems, identify opportunities, and propose creative solutions. It’s a strong choice if you enjoy brainstorming and big-picture thinking.

Healthcare systems engineer

Improve how healthcare systems operate, from patient flow to hospital processes. You would design solutions that make care more efficient and accessible. This role allows you to apply engineering to improve people’s lives.

Product manager

Shape a product from idea to launch, guiding its direction every step of the way. Work closely with engineers, designers, and business teams to balance what’s possible with what users actually need. This career lets you lead innovation and bring impactful ideas into the real world.

Operations analyst

Study how organizations run and find ways to improve efficiency. You would analyze workflows and redesign systems to save time and resources. This career is a great match if you enjoy optimizing real-world processes.

Sustainability systems specialist

Develop systems that reduce environmental impact and improve resource use. You would design solutions that connect energy, waste, and water systems more efficiently. This role is ideal if you want to combine sustainability with engineering.

Project manager (engineering systems)

Lead projects that involve complex systems and multiple stakeholders. You would coordinate teams, manage timelines, and ensure successful delivery. It’s a strong fit if you like leadership and organization.

Business systems analyst

Bridge the gap between business needs and technical solutions, as well as analyze requirements and design systems that improve operations. This career combines communication skills with analytical thinking.

Possible professional designation

Learn about the future of careers in engineering.

Common questions about the program

How does Systems Design Engineering compare to Mechatronics Engineering?

In Systems Design Engineering, the focus in the early semesters is on building up a base of general engineering knowledge, as well as knowledge and experience with design methodology that can be applied broadly. You can then take technical electives and work on advanced design projects in areas that are of particular interest to them, such as mechatronics, intelligent systems, human-computer interaction, systems modelling and alternative energy.

In contrast, Mechatronics Engineering program focuses specifically on the design of effective mechatronic systems that combine mechanical, electronic, computer and software concepts, such as robotics, vehicular systems and smart devices.
If you're interested in both the broad application of design and mechatronic systems, the best approach may be to combine the Systems Design program with a Mechatronics Option or specialization in Physical & Mechatronics Systems or Intelligent & Automated Systems.

How does Systems Design Engineering compare to Computer, Systems, and Software Engineering?

Programs in computer engineering and systems engineering focus almost exclusively on computing systems (hardware/software), while Systems Design covers a much wider variety of systems that may or may not include computing systems. Similarly, Waterloo’s Software Engineering program focuses almost exclusively on software development.

In Systems Design, you'll likely find yourself in software-oriented (programming) type jobs, especially during early work terms. However, you're not bound to follow an exclusively computer or software-oriented path.
You'll take approximately one computer-based course per term for the first two years of study, after which you may choose to take electives that are related to computers and software, or concentrate on areas such as human-ergonomic and societal-environmental systems. Senior design projects cover a wide range of applications, environmental systems modelling, conflict analysis, pattern recognition, intelligent systems, human-computer interaction and biomechanics.

If you're interested in both the broad application of design and computing systems, the best approach may be to combine the Systems Design program with a Computing option, Computer Engineering option or Software Engineering option.

How does Systems Design Engineering compare to Management and Industrial Engineering?

Industrial engineering traditionally focuses on the application of engineering methods for the improvement of manufacturing and industry-related processes, but has broadened to include other work-related domains such as health care and information management. This is the focus of Waterloo’s Management Engineering program, which is offered by our Department of Management Sciences and Engineering.

Systems Design Engineering includes many industrial engineering methods as part of its core curriculum, such as scheduling and optimization, human factors and ergonomics, information management and project management, which are applied in your first-year team design projects. However, you'll also learn the basics of the mechanical, electrical, computing, civil and software engineering disciplines, which enables you to determine where you focus your studies in upper years.

Engineer students in purple outfits at orientation
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We're here to help you become an engineer!

We want every student to graduate, and we focus on supporting students, not weeding them out. The results speak for themselves!

  • 96% employment rate within 6 months of graduating, compared to the Ontario average of 89%*
  • 90% graduation rate, higher than the Ontario average of 82%*

  • 95% progression rate from first year to second

  • Make friends and develop skills in a community 4X more involved in student life through 30+ design teams and 50+ events every term

Discover student life in the Faculty of Engineering →

*University of Waterloo Key Performance Indicators 2024, Waterloo Engineering students compared to the Ontario Engineering students' average

Admission requirements

Ontario students

Six Grade 12 U and/or M courses including

  • Advanced Functions (minimum final grade of 70% is required)
  • Calculus and Vectors (minimum final grade of 70% is required)
  • Chemistry (minimum final grade of 70% is required)
  • Physics (minimum final grade of 70% is required)
  • English (ENG4U) (minimum final grade of 70% is required)

Admission averages: Individual selection from the high 80s to low 90s.

Not studying in Ontario?

Search our admission requirements.

Requirements for all students

The Admission Information Form and online interview are required for admission to all Engineering programs.

How to apply

Apply directly to this program on your application.

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Please contact the Faculty of Engineering which can answer any questions you have.