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Major · Engineering

Engineering at the boundary of living systems and machines

Bioengineering and Biomedical Engineering applies mathematics and scientific principles to the design of medical devices, health systems, artificial organs, and biological tools. It draws students who want to work where engineering and medicine intersect — from neural interfaces to tissue scaffolds. Roughly 8,569 degrees are awarded annually across 205 colleges.

Schools offering
205
Annual completions
8,569
Typical degree level
Associate's + Bachelor's
Median earnings (5yr)
$95k

About this major

Bioengineering and Biomedical Engineering, as defined by its CIP classification, prepares students to apply mathematical and scientific principles to the design, development, and evaluation of biomedical and health systems — including integrated biomedical systems, instrumentation, medical information systems, artificial organs and prostheses, and health management technologies. The curriculum blends foundational engineering coursework — calculus, physics, materials science, and circuit analysis — with biology and physiology that most other engineering majors never touch. Students in this major spend time designing tissue scaffolds, modeling biological systems computationally, and understanding how the human body will respond to a synthetic material or an implanted device. Specialty tracks like neural engineering, biomaterials engineering, and cell and tissue engineering represent the upper-division options students typically choose between.

The major rewards students who find both living systems and engineered systems genuinely interesting, not just one or the other. It demands the same mathematical rigor as any accredited engineering program but adds a layer of biological complexity that makes the coursework broader and, for some students, more motivating. The intersection also means the field moves fast — what counts as a frontier application in tissue engineering or neural interfaces shifts faster than in civil or mechanical engineering.

On the career side, biomedical engineers represent the most direct destination, with a median wage of $106,950 and 5.2% projected growth. Architectural and engineering management is a longer-term path at a $167,740 median for those who move into leadership roles. The major is offered at 205 colleges and produces roughly 8,569 completions annually — a smaller pipeline than most engineering disciplines, which tends to keep its graduates visible in a specialized industry.

Section 3 · Careers

Where this major leads

Occupations most often associated with this major, from the federal BLS+O*NET crosswalk. Job-growth projections and median wages are national.

Occupation Median wage Job growth Typical education
Architectural and engineering managers $168k +3.8% Bachelor's degree
Engineering teachers, postsecondary $106k +8.1% Doctoral or professional degree
Bioengineers and biomedical engineers $107k +5.2% Bachelor's degree
Section 4 · Earnings

Earnings at a glance

Median graduate earnings from the federal College Scorecard, 5 and 10 years out.

Median 5-year earnings

$95k

Who this major is for

You may thrive here if you are drawn to problems where biology and engineering have to be solved together — if designing a device that interfaces with living tissue feels more interesting than designing one that doesn't. You may also fit well here if you want an undergraduate engineering credential that opens both technical industry roles and medical or graduate school paths: the career data shows biomedical engineers at $106,950 median wage, and the major's cross-disciplinary foundation leaves room for graduate study in medicine, public health, or biomedical research. Students who are motivated by medical applications specifically — prosthetics, implants, diagnostic tools, health monitoring systems — will find this curriculum points directly at those areas. The fact that completions are modest at roughly 8,569 per year also means the credential carries some differentiation from the larger engineering pipelines.

Think twice if your interest in biology is abstract rather than applied — if you want to study biological systems for their own sake, a biology or biochemistry major will give you more depth and less engineering overhead. Think twice, too, if you have not tested your appetite for the engineering mathematics: the calculus and differential equations requirements are non-negotiable and non-optional, and students who find those courses limiting will face that ceiling earlier and harder in a bioengineering program than in a more applied health science path. And if your primary interest is in the clinical or patient-facing side of medicine rather than the systems and devices side, this major may be adjacent to your goal rather than the most direct route to it.

Section 6 · Where to study

Top colleges for Bioengineering and Biomedical Engineering

Ranked by annual completions at the associate's or bachelor's level — a proxy for program scale.

College Location Assoc. Bach. Total
Georgia Institute of Technology-Main Campus Atlanta, GA 0 275 275
North Carolina State University at Raleigh Raleigh, NC 0 161 161
Texas A&M University-College Station College Station, TX 0 159 159
University of Michigan-Ann Arbor Ann Arbor, MI 0 150 150
Purdue University-Main Campus West Lafayette, IN 0 148 148
University of North Carolina at Chapel Hill Chapel Hill, NC 0 147 147
Pennsylvania State University-Main Campus University Park, PA 0 140 140
Clemson University Clemson, SC 0 134 134
University of California-San Diego La Jolla, CA 0 126 126
University of California-Berkeley Berkeley, CA 0 124 124

Considering this direction?

We've taken a hard look at the debt, earnings trajectory, and degree-level tradeoffs for the Bioengineering and Biomedical Engineering field. Read our verdict before you commit.

Is Bioengineering and Biomedical Engineering worth it? Read verdict
Section 9 · Frequently asked

Common questions

What do Bioengineering and Biomedical Engineering majors actually study day-to-day?
The curriculum combines engineering fundamentals — mathematics, physics, materials science — with biology and physiology. Early coursework covers cell biology alongside circuits and mechanics, then branches into specialized tracks like biomaterials, neural engineering, and tissue engineering. Lab work is constant: students design and test prototypes, run biological experiments, and use computational modeling tools. The interdisciplinary structure means you're always working at the edge of two disciplines simultaneously, which is demanding but also the source of the major's distinctiveness.
Do I need a bachelor's, or is an associate's enough for Biomedical Engineering?
The data packet shows bachelor's graduates in this field report median five-year earnings around $94,556 — and the associate's figure is not available, which reflects how narrow the associate's pipeline is in this major. All three career destinations listed — biomedical engineers at a $106,950 median wage, architectural and engineering managers at $167,740, and engineering teachers — list a bachelor's degree or higher as the typical entry credential. An associate's path exists at some institutions but it is not the primary credential the profession is organized around.
What kinds of jobs do Biomedical Engineering graduates end up in?
The most direct career destination is biomedical engineer, where the median wage sits at $106,950 with 5.2% projected growth. Architectural and engineering managers represent a senior-level path at a $167,740 median, though that role typically comes after years of experience. Engineering teachers at the postsecondary level ($106,120 median, 8.1% growth) is a destination for graduates who continue into doctoral programs. Beyond those tracked careers, many graduates enter adjacent roles in medical device companies, clinical engineering, regulatory affairs, and health technology assessment.
How competitive is the job market for Biomedical Engineering graduates?
Projected growth for biomedical engineers stands at 5.2% — moderate rather than fast. Engineering teachers show the highest growth rate in the career set at 8.1%, but that path requires doctoral credentials. The biomedical device and health technology industry is substantial, but the field is more specialized than broader engineering disciplines. Completions run around 8,569 per year across 205 colleges, which is small compared to Mechanical Engineering (33,431 completions) or Electrical Engineering (14,891). That smaller pipeline can work in graduates' favor in a tight candidate market.
Is Biomedical Engineering the right fit, or should I consider a related major?
The career overlap is real but partial. Mechanical Engineering (33,431 completions) and Electrical Engineering (14,891 completions) share some career destinations — both produce graduates who enter engineering management — but neither prepares students specifically for medical device design, tissue engineering, or health system development. Chemical Engineering (7,914 completions) overlaps on materials and process work relevant to pharmaceuticals and biomaterials. If the draw is specifically biology-meets-engineering and the medical applications are the point, Biomedical Engineering is the most direct credential. If the medical framing matters less than the mechanical or electronic systems, those adjacent majors offer more breadth.
What's a realistic earnings picture after a Biomedical Engineering degree?
Bachelor's graduates in this major report median five-year earnings around $94,556. The highest-ceiling career in the tracked set — architectural and engineering managers at $167,740 — reflects senior roles that arrive with experience rather than at graduation. The primary destination, biomedical engineer, carries a $106,950 median across all experience levels. Entry-level positions at medical device companies, hospitals, or research institutions tend to fall in the $60,000–$85,000 range depending on employer and geography, with the academic research pipeline often paying on the lower end.