Biomedical Engineering B.S.

4 Years On Campus Bachelors Program

University of Rhode Island

Program Overview

The Biomedical Engineering B.S. at the University of Rhode Island combines engineering, mathematics, physics, biology and medicine to prepare students to design technologies that improve human health. It suits students interested in medical devices, biomedical imaging, neural technologies, rehabilitation, biomechanics and AI-driven healthcare, with hands-on laboratory and design experience built into the degree.

Curriculum structure

Year 1: Students establish their engineering and scientific foundation through subjects such as EGR 101 – Introduction to Engineering Design and Innovation, MTH 141 – Calculus I, BIO 110 – Fundamentals of Biology, CHM 101/102 – General Chemistry Lecture I/Lab, and PHY 203/273 – Elementary Physics I/Lab. The year also introduces students to biomedical engineering through BME 181 – Biomedical Engineering Seminar I, helping them connect their science and engineering studies with healthcare applications.

Year 2: Students move into more specialized engineering and human-science concepts through BME 207 – Introduction to Biomechanics, BIO 220/221 – Fundamentals of Human Anatomy and Physiology I/Lab, and BIO 222/223 – Fundamentals of Human Anatomy and Physiology II/Lab. Courses including ELE 201/202 – Digital Circuit Design/Lab, ELE 212/215 – Linear Circuit Theory/Lab, and EGR 241 – Python for Engineering Applications strengthen their ability to work with biomedical systems, electronics and computational tools.

Year 3: The curriculum becomes more directly focused on biomedical engineering through BME 307 – Bioelectricity, BME 360/361 – Biomeasurement/Lab, and ELE 313 – Signals and Systems I. Students also develop quantitative and professional skills through ISE 311 – Probability and Statistics for Engineers, while their selected track begins to shape their expertise in areas such as biomechanics, neural engineering or biomedical AI.

Year 4: Students apply their technical knowledge to advanced biomedical problems through courses such as BME 461 – Physiological Modeling and Control, BME 466 – Biomaterials Engineering, BME 468 – Neural Engineering, and ELE 456 – Foundations of Robotics. The degree culminates in BME 484/485 – Biomedical Engineering Capstone Design I/II, a year-long design experience focused on solving real-world engineering problems through interdisciplinary collaboration.

Focus areas: Bioinstrumentation and Neural Engineering, Biomechanics and Prosthetics, Biomedical Artificial Intelligence, Biomedical Instrumentation, Neural Engineering, Medical Imaging, Biosignals, Rehabilitation Engineering, Medical Robotics, Biomaterials

Learning outcomes: Apply engineering principles to biomedical problems, analyze biological and physiological systems, design and evaluate biomedical devices and technologies, interpret biomedical measurements and signals, work effectively in interdisciplinary teams, and address ethical and social responsibilities in healthcare engineering.

Professional alignment (accreditation): The Biomedical Engineering B.S. is accredited by the Engineering Accreditation Commission of ABET under the General Criteria and Program Criteria for Bioengineering and Biomedical and Similarly Named Engineering Programs. URI also states that the program curriculum meets the educational requirements for engineering licensure in all U.S. states and territories, subject to applicable state requirements.

Reputation (employability rankings): URI reports that 91% of respondents in its 2025 undergraduate First Destination Survey were engaged in a career outcome within six months of graduation; the reported success rates were 90% in 2022, 88% in 2023 and 96% in 2024. URI's Biomedical Engineering career information also lists employers including Abbott Laboratories, Amgen, Pfizer, Boston Scientific, BD, Siemens and ZOLL Medical Corporation.

Experiential Learning (Research, Projects, Internships etc.)

URI's Biomedical Engineering B.S. combines laboratory work, engineering design, research and industry exposure so students can move beyond theory and develop practical skills. The curriculum includes dedicated laboratory courses in areas such as biomeasurement, digital circuits and biomedical instrumentation, while the three specialized tracks allow students to work toward medical devices, neural technologies, prosthetics, rehabilitation systems and biomedical AI. Students also complete a year-long team-based capstone in which they apply their engineering knowledge to real-world challenges, often working with faculty mentors and industry sponsors.

Students can build practical experience through:

Biomedical Engineering Capstone Design I and II: BME 484 and BME 485 form a year-long capstone sequence where senior students work collaboratively to design, develop, test and present solutions to real engineering problems. URI's College of Engineering notes that capstone projects can include biomedical devices and other applied technologies.
Biomedical instrumentation and laboratory work: BME 360/361 – Biomeasurement/Lab provides direct experience with biomedical measurement, while the Bioinstrumentation and Neural Engineering track adds BME 362/363 – Biomedical Instrumentation Design/Lab and BME 464/465 – Medical Imaging/Lab.
Programming and computational tools: EGR 241 – Python for Engineering Applications is part of the core curriculum, while URI's Biomedical Engineering career resources identify MATLAB and C++ among skills associated with alumni from the major.
Biomechanics and robotics: Students on the Biomechanics and Prosthetics track can study KIN 470 – Biomechanics of Human Motion, BME 461 – Physiological Modeling and Control, BME 466 – Biomaterials Engineering, and ELE 456 – Foundations of Robotics.
Biomedical research laboratories: URI's College of Engineering lists the Neural Processing and Control Laboratory, Neuro Rehabilitation Laboratory, Translational Neurorobotics Laboratory, and Wearable Biosensing Laboratory as biomedical engineering research labs.
Wearable biosensing and neurotechnology: Research at URI includes wearable systems for monitoring heart rate, vital signs, physical activity, falls and movement difficulties, alongside work in biosignal control, medical robotics, brain-computer interfacing and neural engineering.
Internships and industry exposure: URI's Engineering Student Success Center provides one-to-one coaching, workshops, networking and internship support. Approximately 85% of engineering undergraduates gain hands-on experience through at least one internship or research opportunity, and URI reports that 99% of students completing internships in 2022–2024 were paid.
Industry-sponsored projects: URI's College of Engineering works with industry, government and nonprofit partners on internships, career opportunities and senior capstone projects, giving students opportunities to work on practical engineering problems with external partners.
Career and professional preparation: Students have access to career advising, resume support, career fairs, employer networking and Handshake for internships and job opportunities.

Progression & Future Opportunities

The Biomedical Engineering B.S. prepares graduates for careers spanning medical devices, hospitals, pharmaceuticals, biomedical research, rehabilitation and advanced healthcare technology. URI identifies professional opportunities in biomedical electronics, medical instrumentation, medical imaging, biomedical signal processing, rehabilitation engineering, neuroengineering, medical robotics and biomaterials, while graduates can also continue into advanced study.

Typical roles include Biomedical Engineer, Medical Device Engineer, Clinical Engineer, Rehabilitation Engineer, as well as research, biomaterials, medical imaging, quality and regulatory and product development positions. URI's career resources also show alumni working in medical devices, pharmaceuticals and electronic/computer hardware.

Students can strengthen their transition into professional careers through:

Career support: The Engineering Student Success Center provides individual coaching, skill-building workshops, networking opportunities, career fairs, internship support and full-time job-search assistance. Students can also use Handshake for employer connections and job opportunities.
Employment outcomes: URI's First Destination Survey reports that 91% of respondents in 2025 were engaged in a career outcome within six months of graduation. The university reported 90% in 2022, 88% in 2023 and 96% in 2024. These figures are based on respondents for whom URI had available data, rather than all graduates.
Salary information: URI's Biomedical Engineering career database lists examples such as $70,000–$79,000 for entry-level Engineer I, Validation Engineer and Product Engineer roles, $80,000–$89,000 for entry-level Associate Scientist and Clinical Specialist roles, and $60,000–$69,000 for Process Engineer I roles. Experienced positions listed by URI include Engineering Manager at $150,000+ and Senior Biomedical Engineer at $140,000–$149,000.
Industry connections: URI engineering students can connect with employers through internships, career fairs, on-campus interviews and industry-sponsored capstone projects. Biomedical Engineering alumni employers listed by URI include Abbott Laboratories, Amgen, Pfizer, Boston Scientific, BD, Siemens, Medtronic, ZOLL Medical Corporation and Vertex Pharmaceuticals.
Professional accreditation value: The B.S. is ABET-accredited, and URI states that its curriculum meets educational requirements for engineering licensure in all U.S. states and territories, although individual jurisdictions may impose additional requirements.
Graduate outcomes: URI's Biomedical Engineering career resources show alumni progressing to graduate schools including Brown University, Cornell University, Harvard University, Dartmouth College, the University of Pittsburgh and North Carolina State University.

Further Academic Progression: After completing the B.S., students can continue into graduate-level study in biomedical engineering and related areas. URI specifically highlights a five-year bachelor's-to-master's pathway and seamless progression into M.S. and Ph.D. programs in Electrical Engineering, with research opportunities in wearable biosensing, neurorobotics and brain-computer interfacing.