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Key takeaway: A biomedical engineering concentration applies engineering principles to medicine and biology, preparing you to design medical devices, instrumentation, and biological systems. An online biomedical engineering degree is most common at the bachelor's and master's level, though hands-on lab and clinical components often pair online coursework with on-site or proctored work.
Biomedical engineering sits at the intersection of engineering, biology, and medicine. As a concentration inside a broader engineering program, it builds on the engineering core – math, physics, materials, and design – and layers in the human body, living systems, and the regulated world of medical technology. Students learn to translate clinical needs into engineered solutions: imaging systems, prosthetics, diagnostic devices, drug-delivery mechanisms, and the instrumentation that hospitals and labs depend on every day.
This page explains what a biomedical engineering online degree concentration typically covers, the degree levels where it appears, how online delivery works for a lab-heavy field, and who tends to thrive on this track.
A biomedical engineering concentration is a focused sequence of courses within an engineering degree that orients your technical training toward healthcare and life sciences. Rather than designing bridges or power grids, you apply the same analytical methods to biological problems – how tissues respond to stress, how a sensor reads a heartbeat, how a material behaves once it is implanted in the body.
Because the field is interdisciplinary, the concentration draws on several engineering disciplines at once. You will see ideas borrowed from electrical engineering (bioinstrumentation and signal processing), mechanical engineering (biomechanics and device design), and chemical engineering (biomaterials and biochemical processes). That breadth is what makes biomedical engineering distinctive – and why a strong engineering foundation matters before you specialize.
Curricula vary by school and degree level, but most biomedical engineering concentrations cover a recognizable set of course topics. The table below outlines the common building blocks.
| Course Topic | What You Learn |
|---|---|
| Biomechanics | How forces, motion, and materials interact with bones, joints, tissues, and the body’s mechanical systems |
| Bioinstrumentation | Sensors, electronics, and signal acquisition used to measure physiological signals such as ECG and EEG |
| Biomaterials | Material properties, biocompatibility, and how implants and devices interact with living tissue |
| Biomedical Signal Processing | Filtering, analyzing, and interpreting data from medical instruments and imaging systems |
| Systems Physiology | The body’s organ systems modeled through an engineering lens for design and analysis |
| Medical Device Design | The full design cycle – requirements, prototyping, testing, and regulatory considerations |
| Tissue Engineering | Cellular and molecular foundations for engineering biological substitutes and scaffolds |
| Capstone or Design Project | An applied project that integrates coursework into a working device or analysis |
Many programs also require supporting coursework in calculus, differential equations, anatomy or physiology, and chemistry, since biomedical work demands fluency in both engineering math and the life sciences. For a full picture of required and elective sequences, review the engineering curriculum overview.
A biomedical engineering concentration shows up at several points along the engineering education path, and the depth of specialization grows with each level.
Choosing the right level depends on your goals. Device design and clinical-support roles typically start at the bachelor’s level, while research, specialized R&D, and many academic paths favor a master’s.
Many schools deliver engineering coursework online, and the lecture-based portions of a biomedical concentration – signal processing theory, systems physiology, design methodology, and regulatory topics – translate well to a digital classroom. That said, biomedical engineering is a hands-on field. Programs frequently blend online lectures with required lab components, simulation software, proctored exams, or short on-campus residencies so that you still get experience with instrumentation, materials testing, and prototyping.
If flexibility is a priority, look closely at how a program handles its lab and capstone requirements before enrolling. Our guide to the online engineering degree and the online format page explain what to expect from accredited distance programs, including how labs, proctoring, and synchronous sessions are typically arranged.
You can also compare accredited online options side by side:
Every school list on this site is ordered by the BOC Score, computed from the most recent school-level data published by the U.S. Department of Education (College Scorecard and IPEDS). To qualify, a school must be currently operating and accredited by an agency recognized by the U.S. Department of Education. Each eligible school is then scored on five measures, percentile-ranked against schools at the same credential level:
Schools without enough outcome data appear after ranked schools, without a score. Advertising never affects these rankings. Read the full methodology.
Source:IPEDSCollege Scorecard
Source:IPEDSCollege Scorecard
Source:Accreditor: Western Association of Schools and Colleges Senior Colleges and University CommissionIPEDSCollege Scorecard
Source:IPEDSCollege Scorecard
Source:Accreditor: Southern Association of Colleges and Schools Commission on CollegesIPEDSCollege Scorecard
Source:Accreditor: Western Association of Schools and Colleges Senior Colleges and University CommissionIPEDSCollege Scorecard
Source:IPEDSCollege Scorecard
Source:Accreditor: Western Association of Schools and Colleges Senior Colleges and University CommissionIPEDSCollege Scorecard
A biomedical engineering concentration tends to suit students who want their engineering work to have a direct human and healthcare impact. It is a strong match if you:
It may be a weaker fit if you prefer a single, narrowly defined discipline, or if you want a fully online experience with no lab or in-person requirements – the hands-on nature of medical technology usually demands some applied work.
For broader context on accreditation, see the engineering accreditation guide.
It is a focused set of courses within an engineering program that applies engineering principles to medicine and biology. Students learn to design medical devices, instrumentation, biomaterials, and systems that support healthcare and life-science research.
Typical coursework includes biomechanics, bioinstrumentation, biomaterials, biomedical signal processing, systems physiology, and medical device design, usually capped by an applied capstone project. Supporting courses in calculus, chemistry, and physiology are common.
Yes. Lecture-based portions translate well to online delivery, but most programs pair them with lab components, simulation tools, proctored exams, or short on-campus residencies. Always confirm how a program handles its hands-on and capstone requirements before enrolling.
A bachelor’s degree is the most common entry point for device design and clinical-support roles, while a master’s degree suits research, specialized R&D, and advanced study. An associate degree can supply the foundational math and science before transfer.
Biomedical engineering is highly interdisciplinary, blending electrical, mechanical, and chemical engineering with biology and medicine. Other concentrations usually focus on a single domain, while biomedical work centers every project on the human body and healthcare needs.
A strong math and physics foundation matters most, but coursework in anatomy, physiology, and chemistry is typically required. Many programs build the necessary life-science knowledge into the curriculum, so prior biology exposure helps but is not always a prerequisite.
Back to Engineering Concentrations
Data verified: June 27, 2026. Salary, employment, and tuition figures on this page are sourced from the U.S. Bureau of Labor Statistics (OEWS May 2025; Employment Projections 2024–2034) and the U.S. Department of Education College Scorecard (2023 cohort). The source agency and data year are cited inline with every statistic.
