The B.S. in Biomedical Engineering at the University of Vermont combines engineering and biomedical sciences to prepare students to create technologies that address human-health challenges. It suits students who want a hands-on engineering education with opportunities to explore biomechanics, instrumentation, sensors, biomaterials, biotransport, biological signals and biomedical design.
Curriculum Structure
First Year: Students build their mathematical, scientific and engineering foundation through courses such as MATH 1234 Calculus I, CHEM 1400 General Chemistry 1, and BME 1605 Design 1: Intro to Design. The program introduces design from the beginning, allowing students to connect foundational science with biomedical engineering applications.
Second Year: Students move into core biomedical engineering concepts through BME 2170 Biomechanics, BME 2605 Design 2: Regulatory & Testing, and BME 3130 Biomaterials, while continuing supporting courses in anatomy, physiology, mathematics and engineering. This stage develops an understanding of how engineering principles can be applied to biological systems and medical technologies.
Third Year: Students develop more specialized technical skills through BME 3205 Biomechanics Lab, BME 3255 Biomaterials & Transport Lab, and BME 3175 Biomed Data & Signal Analysis. Laboratory and data-focused learning helps students develop the ability to conduct experiments, interpret biomedical data and evaluate engineering solutions.
Fourth Year: Students complete the specialization phase and bring their skills together through BME 3605 Design 3: BME Capstone I and BME 4605 Design 4: BME Capstone II, supported by biomedical engineering and specialization electives. The capstone experience allows students to develop, test and potentially commercialize biomedical technologies while applying professional design and engineering practices.
Focus areas: Biomechanics, biomedical instrumentation, sensors, biophysics, biomaterials, biotransport, biomedical data and signal analysis, biomedical design, regulatory and testing practices, and specialized biomedical engineering applications.
Learning outcomes: Students develop the ability to solve complex engineering problems, design solutions that consider public health and safety, communicate effectively, work collaboratively, conduct experiments and interpret data, make ethical professional decisions, and acquire new knowledge throughout their careers.
Professional alignment (accreditation): The B.S. in Biomedical Engineering is ABET-accredited, and its student outcomes are directly aligned with ABET Criterion 3 outcomes for engineering programs.
Reputation (employability): UVM's College of Engineering and Mathematical Sciences reports strong graduate outcomes: in its 2025 First Destination Survey, 97% of employed full-time CEMS graduates said their employment was related to their career goals, 99% reported satisfaction with their position, and 96% felt prepared for their post-graduation pursuits. These are CEMS-wide figures rather than BME-only figures.
UVM's Biomedical Engineering program integrates practical design, laboratory work and projects throughout all four years rather than leaving hands-on experience until the end of the degree. Students work in teams on design projects connected to clinical needs, learn regulatory and validation practices, and finish with a capstone in which they develop and test functional biomedical solutions. The program's partnership with the Larner College of Medicine and access to UVM's medical and research environment create additional opportunities for biomedical research, internships and clinically motivated projects.
Students can gain practical experience through:
Vertically integrated design: Design is incorporated throughout the four-year curriculum, with team-based projects motivated by teaching and clinical needs from colleagues in the medical school.
BME wet laboratory: The Biomedical Engineering Laboratory provides equipment for cell-culture work and aseptic technique, including biosafety cabinets, centrifuges, CO₂ and ambient incubators, optical microscopes, an automatic cell counter, force plates, pipetors, analytical balances and chemical fume hoods.
Biomechanics and biomaterials laboratories: BME 3205 Biomechanics Lab and BME 3255 Biomaterials & Transport Lab provide program-specific laboratory experience.
Prototype development: UVM's FabLab provides rapid-prototyping tools for developing and testing innovative products and designs, including projects supported by coursework and faculty.
Capstone design: BME 4600/BME 4605 capstone work uses industry-standard biodesign and project-management processes to design, build and test functional prototypes that meet client requirements.
Biomedical innovation: The Center for Biomedical Innovation supports the design, development and testing of biomedical devices and systems, with an emphasis on rural healthcare and support for inventors and entrepreneurs.
Research opportunities: BME 3995 Undergraduate Research allows students to undertake individual or small-team research under faculty supervision for academic credit.
Specialized biomedical facilities: UVM provides access to resources including the Flow Cytometry and Cell Sorting facility, Microscopy Imaging Center, MRI Center for Biomedical Imaging, Instrumentation and Model Facility, Biostatistics, Mass Spectrometry, Proteomics Facility and Vermont Advanced Computing Center.
Internships and co-ops: CEMS supports internships and paid co-ops, with co-op students able to work full-time for an employer for one or two semesters while maintaining UVM student status.
UVM's B.S. in Biomedical Engineering prepares graduates to work as practicing engineers and to pursue professional, educational and research opportunities in biomedical engineering and related fields. Recent employers of CEMS biomedical engineering graduates include University of Vermont Medical Center, Collins Aerospace, Stryker, University of Virginia, GE Healthcare, Alispharm, the U.S. Army and Biosense Webster, showing the range of healthcare, medical-device, engineering and research environments available to graduates.
Typical career directions include Biomedical Engineer, Medical Device Engineer, Biomaterials Engineer and Clinical Engineer:
Career services: CEMS Career Readiness provides career coaching, career exploration, résumé and cover-letter reviews, LinkedIn and networking guidance, job/internship/co-op searches, mock interviews, employer research, salary research and salary-negotiation coaching.
Employment preparation: CEMS reports that 97% of employed full-time graduates in its 2025 First Destination Survey said their employment was related to their career goals, while 99% were satisfied with their position and 96% felt prepared for their post-graduation pursuits. These figures cover CEMS rather than the BME program alone.
Industry connections: UVM lists biomedical engineering employers including Stryker, GE Healthcare, Biosense Webster and Collins Aerospace, as well as the University of Vermont Medical Center and other organizations.
Healthcare collaboration: The BME program was developed jointly by UVM's College of Engineering and Mathematical Sciences and the Robert Larner, M.D. College of Medicine, creating opportunities connected to biomedical research, clinical needs and human-health innovation.
Professional value of accreditation: ABET accreditation demonstrates that the program's engineering education meets established professional standards and that its student outcomes address engineering problem-solving, design, communication, ethics, teamwork, experimentation and lifelong learning.
Practical career experience: CEMS supports paid co-ops in which students alternate academic study with full-time employment related to their career interests, helping them apply classroom knowledge in professional settings.
Further Academic Progression: Graduates can continue into UVM's M.S. in Biomedical Engineering or pursue the department's Accelerated Master's Program, which allows qualified UVM engineering students to begin graduate-level study while completing their bachelor's degree. Students interested in research can also progress toward UVM's Ph.D. in Biomedical Engineering, while the B.S. can provide a foundation for other professional or graduate programs related to healthcare, engineering and biomedical research.


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