Biomedical engineering (BME)

4 Years On Campus Bachelors Program

University of Delaware

Program Overview

The Biomedical Engineering (BME) program at the University of Delaware combines engineering with biology and medicine, giving students the skills to develop technologies and solutions that can improve human health. It suits students who enjoy science, mathematics, problem-solving, and design and want to work in areas such as medical devices, biotechnology, biomedical research, healthcare technology, or further study in medicine and engineering.

Curriculum Structure

First Year: Students start with a broad foundation in engineering, biology, chemistry, mathematics, and computing. Courses such as BMEG100 Fundamentals of Biomedical Engineering, BMEG111 Cell & Tissue Engineering, and EGGG101 Introduction to Engineering (FYE) introduce students to biomedical engineering while courses such as BISC207/217 Introductory Biology I Lecture/Lab, CHEM103/133 General Chemistry I Lecture/Lab, and MATH241 Analytic Geometry and Calculus A establish the scientific and mathematical foundation for later BME coursework.

Second Year: Students begin applying their scientific knowledge to biomedical systems and engineering design. Courses including BMEG301 Quantitative Cellular Physiology, BMEG341 Biomedical Experiment Design & Analysis, and BMEG260 Intro to Medical Device Design develop skills in physiological analysis, experimental design, data interpretation, and medical-device development, supported by courses such as BMEG230 Circuits, Signals and Systems for Biomedical Applications and PHYS203/204 Fundamentals of Physics with Biomedical Applications.

Third Year: The program becomes more specialized and hands-on as students study areas such as mechanics, instrumentation, modeling, physiology, and biological transport. BMEG310/309 Bioengineering Mechanics Lecture/Lab, BMEG330 Biomedical Instrumentation, and BMEG340 Biomedical and Pharmaceutical Modeling help students understand how engineering principles can be used to analyse the human body, develop biomedical instruments, and model biological and pharmaceutical systems, while BMEG360 BME Junior Design introduces more substantial engineering design work.

Fourth Year: Students bring their engineering and biomedical knowledge together through advanced design and a major capstone experience. BMEG460 Biomedical Engineering Design (DLE & Capstone) allows students to work on a substantial biomedical engineering problem, while PHIL444 Medical Ethics helps them consider the ethical and societal responsibilities associated with healthcare technologies and engineering decisions.

Focus Areas

Multiscale biomechanics, bioinstrumentation, bioimaging, applied biomaterials and tissue engineering, computational biomedical engineering, biosystems engineering.

Learning Outcomes

Students develop the ability to identify and solve complex biomedical engineering problems, apply mathematics and engineering principles to biological systems, design and conduct laboratory experiments, analyse and interpret data, work effectively in teams, communicate technical ideas, and design solutions while considering health, safety, ethical, social, environmental, and economic factors.

Professional Alignment (Accreditation)

The Biomedical Engineering undergraduate program at the University of Delaware is accredited by the Engineering Accreditation Commission of ABET. The program prepares graduates for professional employment in areas including medical devices, imaging, biotechnology, biopharmaceuticals, and other health and science-related industries, while also supporting progression into graduate and professional programs.

Reputation (Employability Rankings)

The University of Delaware's Biomedical Engineering department highlights strong graduate outcomes and a practical, career-focused learning environment. The department reports that 98% of students secured employment after graduation and an average starting salary of $75,000 for students entering their first full-time position, while about one-third of undergraduates continue to graduate school and many pursue medical or dental school.

Experiential Learning (Research, Projects, Internships etc.)

Students start working with real biomedical engineering problems from the beginning of the degree, with laboratory work, design projects, research and clinical experiences becoming increasingly important as they progress. The program combines hands-on experimentation with access to engineering design facilities, computational simulation tools, prototyping equipment and biomedical research laboratories, while the senior design experience allows students to develop solutions for real-world challenges with industry partners.

Students can gain practical experience through:

  • BMEG341 Biomedical Experiment Design & Analysis, where students develop experience with biomedical experimental methods and data analysis.
  • BMEG260 Intro to Medical Device Design, giving students an early introduction to the process of developing medical devices.
  • BMEG360 BME Junior Design, providing a dedicated opportunity to apply engineering knowledge to a biomedical design challenge.
  • BMEG460 Biomedical Engineering Design (DLE & Capstone), where senior students complete a major design experience.
  • Clinical Immersion, where students can enter real healthcare environments, observe healthcare professionals, identify unmet clinical needs, and consider how engineering could address those needs. A University of Delaware example involved a student completing 100 hours with Rothman Orthopaedics in operating rooms and outpatient clinics.
  • Industry-sponsored senior design projects, allowing students to work from an identified engineering problem through design and prototyping. UD's senior design program has worked with more than 100 industry, academic, and community sponsors and addressed more than 500 design challenges.
  • Design Studio, Machine and Electronics Shops, Materials Testing Facility, rapid prototyping systems, and computational simulation software, which support the development and testing of senior design projects.
  • Undergraduate research, with opportunities in areas such as nanomedicine, biomechanics, neuroengineering, and tissue engineering. Students can participate in faculty research during the academic year or through programs such as Summer Scholars, Winter Fellows, SURF, REUs, independent study, and senior thesis projects.
  • Research infrastructure on UD's STAR Campus includes the Delaware Center for Musculoskeletal Research, Center for Biomedical and Brain Imaging, Delaware Biotechnology Institute, nanofabrication facilities, and laboratories supporting human-based studies, imaging, bioinformatics, proteomics, biomechanics, and advanced microscopy.
  • Students can also participate in study abroad, with the BME major eligible for UD's global programs.

Official facilities and research information: University of Delaware Biomedical Engineering research and senior design facilities.

Progression & Future Opportunities

Biomedical Engineering graduates from the University of Delaware can move directly into biomedical and engineering industries or continue into graduate and professional education. The program specifically identifies opportunities in medical devices, imaging, biotechnology, biopharmaceuticals and other health-related fields, while the curriculum also supports students planning to pursue medicine, dentistry, physical therapy and other professional pathways.

Typical career directions include Biomedical Engineer, Product Development Engineer, Design Engineer, Research and Development Engineer, with additional opportunities in medical-device sales, quality engineering, consulting, project management and research.

Students can build their transition into employment and further study through:

  • Career and Post-Graduate Success support, including career coaching, job and internship opportunities through Handshake, research opportunities and funding support.
  • Internship & Professional Experiences Grants, which can provide eligible undergraduates with up to $5,000 toward unpaid or underpaid internships, research, job shadowing, field experiences or professional conferences.
  • Research Experiences for Undergraduates, with available programs providing substantial hands-on research experience and, depending on the program, stipends of approximately $4,500–$6,000.
  • Industry-connected senior design, where students work on real engineering challenges with industry, academic and community sponsors.
  • The department's Clinical Immersion Program, which provides exposure to clinical practice and helps students identify real healthcare needs that could become future engineering projects or career directions.
  • ABET accreditation, which provides an established quality benchmark for the engineering curriculum and supports preparation for professional engineering practice and continued technical development.
  • The University reports 98% employment after graduation and a $75,000 average starting salary for students beginning their first full-time position, giving prospective students a useful indication of the broader career environment associated with the program.

Further Academic Progression: Graduates can continue into master's or doctoral study in biomedical engineering and related engineering or science disciplines, or pursue professional programs such as medical school, dental school, physical therapy, pharmacy, physician assistant programs, business, or law. The University of Delaware also offers 4+1 programs, allowing eligible students to begin graduate coursework during their senior year and potentially complete a bachelor's and master's degree in as little as five years.

Program Key Stats

$17660
$43220
$43220
$75
EA, RD

Jan Intake : 1st NovAug Intake : 15th Jan (RD) , 1st Nov (EA / ED)


70%

Eligibility Criteria

BBC - BBB
3.4 - 3.6
30 - 36
70 - 80

1350 - 1400
33 - 36
6.5
90
Optional
No

Additional Information & Requirements

How US Universities Assess Applicants

Career Options

  • Biomedical Engineer
  • Product Development Engineer
  • Design Engineer
  • System Test Engineer
  • Medical Device Sales Representative
  • Research and Development Engineer
  • Product Specialist
  • Project Manager
  • Quality Engineer
  • Biomedical Engineering Consultant
  • Business Technology Analyst
  • Research Scientist
  • Entrepreneur

Book Free Session with Our Admission Experts

Admission Experts