Western Michigan University

What you'll study

The programme blends core engineering fundamentals with specialised biomedical topics. Students typically take coursework in biomechanics, biomaterials, biomedical instrumentation and sensors, medical imaging fundamentals, and biomedical signal and image processing. Additional common subjects include tissue engineering, systems physiology for engineers, controls and modelling for biological systems, and design of medical devices.

WMU offers thesis and non‑thesis options. The thesis route emphasises independent research under a faculty advisor and culminates in a written thesis and defence, while the non‑thesis route centres on advanced coursework and a capstone design project or practicum. Research seminars, professional development courses and laboratory rotations are commonly available, and students select electives to tailor the programme toward areas such as translational research, clinical engineering, or device manufacturing.

• Core topics: biomechanics, biomaterials, biomedical instrumentation, signal processing
• Electives and specialisms: tissue engineering, medical imaging, modelling of physiological systems, regulatory and quality topics
• Project options: thesis research, capstone design project, industry practicum

Entry requirements

Applicants are normally expected to hold a bachelor’s degree in biomedical engineering, electrical or mechanical engineering, materials science, bioengineering, or a closely related quantitative discipline. Applicants who lack specific prerequisites may be admitted conditionally and asked to complete bridging courses; typical prerequisites include calculus, differential equations, linear algebra, basic circuits or electronics, and introductory biology or physiology.

Admission requires academic transcripts, a statement of purpose outlining research or career objectives, and letters of recommendation from academic or professional referees. International applicants must demonstrate English language proficiency through recognised tests or qualifications. WMU may consider GRE scores where provided, but requirements and weight given to GRE results can vary by cohort and advisor.

Career prospects

Graduates enter roles across the biomedical and healthcare technology sectors. Common career paths include biomedical device design and development, clinical engineering in hospitals, research and development in medical technology companies, and quality, regulatory or manufacturing engineering roles. Graduates also pursue doctoral study in engineering or biomedical sciences and work in translational research, contract research organisations, or startups focusing on medical diagnostics and therapeutics.

Skills developed—such as experimental design, quantitative modelling, prototyping, and regulatory awareness—are valued by employers in medical device manufacturing, biotechnology, hospitals and research institutions. The programme’s project and practicum options help students build employer‑relevant portfolios and industry contacts.

Why study at Western Michigan University

Western Michigan University’s engineering graduate programmes emphasise hands‑on learning, collaborative research and close faculty mentorship. Biomedical engineering students benefit from access to departmental laboratories, interdisciplinary research groups, and opportunities to work with regional healthcare providers and medical device companies. Class sizes are typically small, enabling personalised supervision for research and design projects.

WMU supports graduate students through research assistantships, laboratory facilities, and professional development activities that prepare students for both industry and academic careers. The university’s location in Michigan provides proximity to a cluster of medical device manufacturers and clinical partners, offering avenues for internships, applied research projects and employment following graduation.