University of British Columbia

What you'll study

The Electrical Engineering degree at UBC combines a strong foundation in mathematics, physics and computer programming with progressively specialised electrical engineering topics. In early years you will study calculus, linear algebra, classical mechanics, thermodynamics, introductory programming and circuit theory to build the analytical base used throughout the degree.

• Core electrical engineering topics: circuit analysis, analogue and digital electronics, signals and systems, electromagnetics and fields, power systems, control theory and communications.
• Specialist and elective subjects: microelectronics, semiconductor devices, VLSI design, embedded systems, robotics, renewable energy systems, high‑frequency systems, optical communications and machine learning for signal processing.
• Computing and software: data structures, real‑time programming, numerical methods and software tools commonly used in engineering design and simulation.
• Laboratory and design work: substantial lab courses develop hands‑on skills in circuit construction, measurement and instrumentation; team design projects and a final-year capstone design course emphasise real‑world problem solving, documentation and professional practice.

Students also take courses in engineering ethics, communication and project management. Options for interdisciplinary study and technical electives allow tailoring toward areas such as renewable energy, biomedical engineering or computer engineering.

Entry requirements

Admission is competitive and based on strong performance in senior secondary school subjects. Typical academic preparation includes high achievement in mathematics (calculus or equivalent) and physics; chemistry is often recommended. Prospective students presenting International Baccalaureate (IB), A‑levels or other qualifications should meet UBC's faculty and university general requirements.

• Academic prerequisites: advanced mathematics and physics at senior secondary level; secondary school graduation with high grades in relevant STEM subjects.
• English language proficiency: applicants whose first language is not English must meet UBC's English language requirements through accepted tests or qualifications.
• Alternative pathways: UBC accepts transfer students from colleges and offers pathways for mature students; engineering faculty may require specific course equivalencies for transfer credit.

Meeting minimum subject requirements does not guarantee admission; admissions decisions consider academic record in context and the competitiveness of the applicant pool.

Career prospects

Graduates of UBC's Electrical Engineering programme enter a broad range of industries. Common career destinations include:

• Power utilities, transmission and distribution companies, and renewable energy firms (power systems design, grid integration, protection and control).
• Semiconductor and electronics manufacturers, integrated circuit design and testing, hardware engineering and printed circuit board design.
• Telecommunications and networking companies, working on wireless systems, optical communications and signal processing.
• Embedded systems, robotics and automation companies developing firmware, control systems and mechatronic solutions.
• Software and technology firms where strong hardware–software integration skills are valued, including systems engineering and IoT applications.
• Consulting, project management, technical sales and patent or regulatory roles; many graduates also pursue graduate study (MEng/MSc/PhD) or professional engineering licensure.

Co‑op placements, internships and senior projects help students build industry contacts and practical experience valued by employers.

Why study at University of British Columbia

UBC is a research‑intensive university with engineering programmes that emphasise hands‑on learning, design experience and industry engagement. The electrical engineering department hosts research groups in areas such as power and energy systems, microelectronics, communications and control, offering students access to modern laboratories and research projects.

• Work‑integrated learning: opportunities include co‑op or internship placements and community‑based design projects that connect students with industry partners.
• Facilities and centres: students benefit from specialised labs and multidisciplinary research centres that support projects in robotics, renewable energy, photonics and semiconductor technologies.
• Location and industry links: UBC's location provides access to a dynamic technology sector, energy companies and start‑up ecosystems, as well as entrepreneurship and innovation support for students who wish to commercialise ideas.
• Student support and extracurriculars: active engineering student societies, technical clubs and competitions (robotics, circuits, design contests) enhance practical skills and professional development.

Together, these elements prepare graduates to be adaptable engineers equipped for professional practice, research or entrepreneurial careers in a changing technological landscape.