University of Michigan

What you'll study

The programme builds from core mathematics and physical science into progressively specialised electrical and electronic engineering subjects. In early years you follow a foundation of calculus, differential equations, physics, introductory computer science and basic circuit theory. Core engineering modules cover topics such as analog and digital circuits, signals and systems, electromagnetics, semiconductor devices, microelectronics, and systems-level design.

Laboratory work and computing are integrated throughout the curriculum to develop practical skills in measurement, PCB design, embedded systems, FPGA programming, and simulation tools. Students complete team-based design projects and a capstone sequence that emphasises systems integration, testing, documentation and professional practice.

• Fundamental mathematics and physics supporting engineering analysis
• Circuits and electronics (analog and digital)
• Signals, systems and communications
• Electromagnetics and power fundamentals
• Microelectronics, VLSI concepts and semiconductor devices
• Control systems, robotics and embedded systems
• Laboratory courses, computer-aided design tools and hands-on prototyping
• Technical electives allowing focus areas such as power, photonics, RF, or computer engineering

Structure

The degree follows a standard four-year undergraduate pattern with a combination of required core courses, technical electives, general education requirements and a senior design capstone. Students may take advantage of research opportunities, internships, or dual-degree and minor options to broaden or deepen their studies.

Entry requirements

Applicants are expected to have strong performance in secondary school science and mathematics. Typical preparation includes advanced mathematics (calculus if available), physics and experience with problem solving; prior programming experience is advantageous. Admissions decisions at the University of Michigan consider overall academic record, coursework difficulty, letters of recommendation and personal statements.

International applicants must demonstrate English language proficiency according to the university's published requirements. Transfer applicants should consult the College of Engineering for equivalency of prior coursework and credit transfer policies.

Career prospects

Graduates enter a broad range of technical careers. Common roles include electronics design engineer, embedded systems engineer, semiconductor device engineer, communications and network engineer, control systems or robotics engineer, and power systems engineer. Many alumni also move into software development, systems engineering, product management, technical consulting, or continue to postgraduate research and study.

The programme's strong industry connections and emphasis on hands-on design prepare graduates for employment in sectors such as consumer electronics, automotive and mobility, telecommunications, aerospace, energy and medical devices, as well as startups and national laboratories.

Why study at University of Michigan

The College of Engineering provides a broad and research-active environment with access to advanced laboratories, cleanrooms and maker facilities that support electronics and microfabrication work. Students benefit from close links with industry partners, a large alumni network, structured advising, and career services that help secure internships and co‑op experiences.

Opportunities for undergraduate research, interdisciplinary projects with other units across the university, entrepreneurial support and design-centred coursework help students develop both technical depth and the practical skills employers seek.