Bachelors in Biomedical Engineering

4 Years On Campus Bachelors Program

Vanderbilt University

Program Overview

The Bachelor’s in Biomedical Engineering at Vanderbilt University brings together biology, medicine and engineering to help students understand how technology can be used to solve real healthcare challenges. It is a strong choice for students interested in developing medical devices, improving biomedical technologies, studying biological systems, or exploring areas such as biomaterials, imaging, tissue engineering and neural engineering.

Curriculum Structure

Year 1: Students begin by building a strong foundation in mathematics, science and engineering. Courses such as Accelerated Single-Variable Calculus I, General Chemistry I and Laboratory, and Introduction to Engineering introduce the essential concepts and practical skills needed for further study in biomedical engineering.

Year 2: Students move into the core of biomedical engineering and start applying engineering principles to biological and medical systems. Courses such as Biomechanics, Systems Physiology I, and Quantitative Methods I: Statistical Analysis help students understand how the human body works and how engineering and data analysis can be used to study biological systems.

Year 3: Students develop more advanced technical knowledge through courses including Physiological Transport Phenomena, Biomedical Instrumentation I and II, and Quantitative Methods II: Signals and Modelling. These subjects help students understand how substances move through biological systems, how biomedical instruments are designed and used, and how mathematical models can represent physiological processes.

Year 4: In the final year, students bring together their scientific and engineering knowledge through advanced courses such as Biomedical Materials, Biomedical Engineering Laboratory III, and Design of Biomedical Engineering Systems I and II. The senior design experience gives students an opportunity to work on practical biomedical engineering challenges while developing their problem-solving, design and teamwork skills.

Focus Areas

Biomedical imaging, biophotonics, medical devices, biomedical instrumentation, biomaterials, tissue engineering, biologics, implants, synthetic biology, neural engineering, computational modelling, nanobiotechnology, biomechanics, physiological systems, biomedical materials and therapeutic technologies

Learning Outcomes

Students learn to apply mathematics, biology, science and engineering principles to biomedical challenges, design and evaluate healthcare technologies, conduct experiments, analyse and interpret data, solve complex engineering problems, work effectively in multidisciplinary teams, communicate technical ideas clearly, and consider ethical and professional responsibilities when developing biomedical solutions

Professional Alignment (Accreditation)

The Bachelor of Engineering in Biomedical Engineering at Vanderbilt University is accredited by the Engineering Accreditation Commission of ABET. This accreditation demonstrates that the program meets established standards for engineering education and prepares students with the technical, analytical and professional skills needed for engineering practice and further study.

Reputation (Employability Rankings)

Vanderbilt University describes its Biomedical Engineering program as a pioneering and highly respected program in the field. The university also reports that 90% of engineering students entering the workforce secure employment within six months of graduation, while 93% of Vanderbilt’s 2024 graduates were employed or enrolled in graduate school within six months.

 

Experiential Learning (Research, Projects, Internships etc.)

Students in Vanderbilt University’s Bachelor’s in Biomedical Engineering gain practical experience by applying engineering principles to real biomedical and healthcare challenges. From laboratory work and undergraduate research to team-based design projects, students have opportunities to develop hands-on technical skills and work with specialised biomedical facilities and research groups. The program also benefits from Vanderbilt’s close connection with Vanderbilt University Medical Center, giving students opportunities to explore research linked to clinical and healthcare applications.

Students can build their experience through laboratory courses, research placements, internships and the Immersion Vanderbilt experience. They can also work on practical projects involving biomedical instrumentation, medical imaging, biomaterials, computational modelling and biomedical device design:

  • Biomedical Engineering Laboratories: Students gain hands-on experience with biomedical engineering equipment and techniques through laboratory-based courses, including work involving biomedical instrumentation, measurement and engineering design.

  • Undergraduate Research: Students can participate in faculty-led research and take BME 3860/3861 Undergraduate Research for academic credit. This allows them to work directly on active biomedical engineering research projects alongside faculty and research teams.

  • Vanderbilt University Medical Center: The university’s connection with Vanderbilt University Medical Center provides opportunities for students to engage with biomedical and clinical research and see how engineering solutions can be applied in healthcare.

  • Immersion Vanderbilt: Biomedical engineering students complete an Immersion experience within their major. The experience begins with ES 140x Introduction to Engineering and develops into a substantial project that students can present through Design Day or another Immersion Showcase.

  • Senior Design Projects: Students work in teams to tackle real-world biomedical engineering challenges. Projects can involve developing prototypes, systems, simulations or virtual demonstrations, while students work with faculty and industry advisers and gain experience with design reviews, budgets and project deadlines.

  • Internships and Career Experience: Students have access to internship opportunities and dedicated biomedical engineering career support, including guidance with finding internships, connecting with employers, preparing resumes and developing interview skills.

  • Summer Research Opportunities: Undergraduate students can spend the summer working with faculty, graduate students and research staff on active engineering research projects, giving them additional laboratory and research experience.

  • Biomedical Imaging and Biophotonics: Specialised research facilities support work in biomedical imaging, optical imaging, spectroscopy, microscopy, cell and tissue culture and image analysis, allowing students to explore advanced biomedical technologies.

  • Nanotechnology Facilities: The Vanderbilt Institute of Nanoscale Science and Engineering (VINSE) provides access to specialised nanotechnology research and training facilities, including cleanroom, fabrication, analytical and advanced imaging capabilities.

  • Digital and Computational Tools: Students develop practical skills in areas such as computational modelling, medical imaging, computer-aided drafting for biomedical engineering design, biomedical instrumentation and nanobiotechnology, combining digital methods with physical engineering applications.

Progression & Future Opportunities

A Biomedical Engineering degree from Vanderbilt University gives graduates a strong foundation for careers in medical technology, healthcare, biomedical research and engineering. Students can move directly into industry or research roles, or use the degree as preparation for graduate study, medical school and other professional pathways.

Typical career options include Biomedical Engineer, Medical Device Engineer, Biomedical Researcher, Biomedical Imaging Engineer:

  • Career support: Students receive dedicated support from a Biomedical Engineering Career Coach, who can help with internship searches, employer connections, resumes, cover letters and interview preparation. Vanderbilt’s Career Center also provides access to internship opportunities and additional career guidance.

  • Employment opportunities: Vanderbilt BME graduates have gone on to work with organisations such as Johnson & Johnson Vision Care, St. Jude Medical, Medtronic, Merck, Vertex Pharmaceuticals, Smith+Nephew, Amgen, GlaxoSmithKline, Epic Systems and Beam Therapeutics. These employers reflect opportunities across medical devices, pharmaceuticals, biotechnology, healthcare technology and biomedical research.

  • Graduate and professional opportunities: Graduates have continued their studies at universities including Yale, Vanderbilt, Purdue, Northwestern, MIT, Georgia Tech, Emory, Cornell and Carnegie Mellon. The degree can also provide preparation for medical and dental school.

  • Employment outcomes: Vanderbilt’s School of Engineering reports that 97% of students from the Class of 2025 who intended to enter the workforce were employed, while 93% of students intending to pursue graduate or professional school were admitted.

  • Industry experience: Students can develop professional experience through internships, summer research and connections with employers working in areas such as medical equipment, biomedical computing, biomedical imaging, regulatory affairs, biomedical research and software.

  • Professional accreditation: The Bachelor of Engineering in Biomedical Engineering is accredited by the Engineering Accreditation Commission of ABET. This accreditation confirms that the program meets recognised engineering education standards and adds professional value for graduates pursuing engineering careers or further study.

Further Academic Progression: After completing the bachelor’s degree, students can continue into advanced study in Biomedical Engineering, including a Master of Engineering, Master of Science or PhD. The degree can also provide a strong foundation for medical school, and Vanderbilt offers opportunities connected with medical and research education through its Schools of Engineering and Medicine.

Program Key Stats

$67934
$67934
$67934
$50
ED1, ED2, R
Sept Intake : RD 1st Jan EA/ED 1st Nov


11%

Eligibility Criteria

ABB - AAB
3.8 - 4
30 - 34
90 - 95

1400 - 1450
33 - 36
6.5
90
Optional
No

Additional Information & Requirements

How US Universities Assess Applicants

Career Options

  • Medical Equipment Engineer
  • Medical Computing Specialist
  • Biomedical Imaging Engineer
  • Regulatory Affairs Specialist
  • Biomedical Researcher
  • Biomedical Software Engineer
  • Biomedical Systems Engineer
  • Medical Device Engineer
  • Healthcare Technology Specialist
  • Biomedical Research Scientist
  • Engineering Consultant
  • Biomedical Technology Specialist
  • Biomedical Engineering Researcher

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