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Biomedical Engineer

Biomedical engineers design medical devices, test prototypes, and improve patient care technology.

Average salary
$109,370
Salary range
$71,850 – $168,180
Training time
4 years full time
Job market
Much faster than average
9/10
Work-life balance
Good
7/10

Biomedical engineers design medical devices such as implants, prosthetics, and diagnostic tools to improve patient outcomes. They build and test prototypes in laboratory settings, evaluate clinical equipment, and prepare technical files for regulatory review. Many collaborate directly with doctors to translate clinical needs into working hardware or software. Official employment data groups bioengineers and biomedical engineers together under one category. Daily work centers on solving complex biological problems through structured engineering methods and quality controls.

A workday

A day in the life

What does a workday really look like?

A balanced weekday focused on CAD modeling, benchtop testing, and risk documentation.

  1. 8:30 AM
    Morning review

    Review automated overnight test records and email updates from manufacturing partners.

  2. 9:30 AM
    Cross-discipline standup

    Meet with mechanical engineers and quality specialists to align on sprint goals.

  3. 10:15 AM
    Computer-aided design

    Refine 3D solid models for an implant casing using SolidWorks.

  4. 12:00 PM
    Lunch break

    Midday meal and personal break.

  5. 1:00 PM
    Prototype bench testing

    Run fatigue and stress tests on prototype parts inside the biomechanics lab.

  6. 3:00 PM
    Data analysis

    Import test sensor outputs into MATLAB to analyze failure points.

  7. 4:30 PM
    Verification documentation

    Draft formal verification reports and update device risk assessment files.

Task breakdown

A day centered on hands-on prototype verification, doctor feedback, and regulatory updates.

  1. 8:00 AM
    Lab setup

    Calibrate diagnostic sensors and prepare prototype test fixtures.

  2. 9:00 AM
    Mechanical verification

    Execute formal design verification protocols on surgical tool prototypes.

  3. 11:00 AM
    Clinician consultation

    Meet with surgeons to review prototype ergonomics and user feedback.

  4. 12:30 PM
    Lunch break

    Midday meal and break.

  5. 1:30 PM
    Design adjustments

    Modify device blueprints and technical drawings based on clinician feedback.

  6. 3:00 PM
    Regulatory documentation

    Update FDA design control records and complete test summary files.

  7. 4:30 PM
    Clean room inspection

    Inspect clean room assembly equipment and log maintenance checks.

Salary data

What do you really earn?

Salary by experience, sector and region.

Minimum
$71,850
Average
$109,370
Maximum
$168,180

Salary by region

RegionMinAvg.Max
National$71,850$109,370$168,180
Massachusetts$76,750$127,570$194,760
California$89,420$128,310$179,810
Texas$59,540$92,600$159,540
Minnesota$88,530$127,730$176,330
Pennsylvania$77,360$122,560$158,600

Typical benefits

Health and retirement plans
Standard coverage providing medical insurance and long-term retirement savings options.
Tuition help for graduate study
Financial assistance from employers to pursue master's degrees or continuing engineering education.
Hybrid schedules at many employers
Flexibility to split time between office desks and home for simulation or documentation tasks.
Meaningful work that helps patients
Direct personal satisfaction that comes from creating technology that improves human health.

Pathways

Education pathways

Which paths lead to this profession?

Bachelor's degree

4 years full time

Bachelor's degree in biomedical engineering or another engineering field

This four-year degree provides fundamental training in engineering principles and biological sciences. Employers often prefer programs accredited by ABET. Some engineers enter the field with degrees in mechanical or electrical engineering.

Costs
About $11,950 a year in average published tuition and fees at a public four-year college for in-state students, and $45,000 at a private nonprofit four-year college
Entry requirements
High school diploma with strong math and science
High school subjects
Biomedical engineering, mechanical engineering, electrical engineering
Master's degree

1 to 2 years full time

Master's degree in biomedical engineering

A graduate degree deepens technical expertise in specialized areas like bioinstrumentation or tissue engineering. It is common for research and development roles.

Entry requirements
Bachelor's degree in engineering or a related science
High school subjects
Advanced biomechanics, biomaterials, medical device regulation
Doctoral degree

4 to 6 years

PhD in biomedical engineering

A doctoral degree involves extensive laboratory research and dissertation defense. It is usually needed for university faculty and lead research positions.

Entry requirements
Bachelor's or master's degree
High school subjects
Independent research, bioengineering theory

Profile

Skills & personality

Is this a good fit for you?

Hard skills

  • CAD software such as SolidWorksBuild 3D models and manufacturing drawings for medical devices and components.
  • MATLAB or Python data analysisProcess test data, evaluate biological signals, and automate laboratory analyses.
  • Medical device design controlsFollow FDA design controls and documentation procedures throughout the product lifecycle.
  • Biomaterials and biomechanicsSelect biocompatible materials and assess structural loads on implants and tools.
  • Test protocol design and verificationCreate testing procedures to verify that prototypes meet engineering and safety specifications.
  • Risk management for medical devicesConduct risk analyses and failure mode evaluations to ensure patient safety.

Soft skills

  • Analytical thinkingBreak down complex biological and mechanical problems into verifiable engineering solutions.
  • Teamwork across disciplinesCollaborate productively with clinicians, software developers, and manufacturing staff.
  • Clear technical writingPrepare precise test protocols, verification reports, and regulatory documentation.
  • Attention to detailMaintain exact records and measurements to meet strict medical device quality standards.

Is this a good fit for you?

  • ✓
    MethodicalFollows structured protocols, quality regulations, and controlled documentation without cutting corners.
  • ✓
    InquisitiveEnjoys solving intricate biological and mechanical puzzles to discover better therapeutic solutions.
  • ✓
    CollaborativeWorks well alongside surgeons, technicians, and quality inspectors from varied backgrounds.
  • ✓
    PatientStays persistent through repetitive prototype iterations and multi-stage testing cycles.
  • ✓
    Detail-orientedSpots subtle discrepancies in physical testing data, tolerances, and compliance records.

Market

Job market & outlook

What does the market look like?

Openings per year
1,200
Trend
Growth
Growth
+7.6%
AI impact
4/10
AI speeds up simulation, data analysis and drafting of documentation. Design judgment, testing with clinicians and regulatory accountability stay human.

Regional demand

Massachusetts
Strong concentration of medical device firms and research centers.
10/10
Minnesota
High demand driven by established medical technology companies.
10/10
California
Steady demand across biotechnology clusters and device manufacturers.
5/10
Pennsylvania
Active employment across health systems and biomedical research institutes.
5/10
Texas
Hiring across hospital systems and medical manufacturing centers.
5/10

Growth

Career paths

Where can this profession take you?

Vertical growth

  1. Associate biomedical engineer
    0-2 years

    Works under supervision on test protocols, CAD modifications, and basic lab verification tasks.

  2. Biomedical engineer
    2-5 years

    Takes ownership of device subsystems, executes verification testing, and handles design control records.

  3. Senior or principal engineer
    5-10 years

    Leads complex design programs, mentors junior staff, and solves challenging regulatory and technical issues.

  4. Engineering manager
    10+ years

    Directs engineering teams, manages project budgets, and aligns development milestones with company goals.

Horizontal move

  • Sales engineer

    Uses technical medical device knowledge to support sales discussions and advise clinical clients.

  • Medical scientist

    Conducts scientific investigations focused on human health improvements, often in laboratory environments.

Good to know

Practical info

Working hours
Full time on a standard weekday schedule, with occasional overtime near product launches or regulatory deadlines.
Remote work
Partly possible for design, simulation and documentation, but lab testing, manufacturing support and hospital work require being on site.
Physical requirements
Mostly office and laboratory work, sometimes in clean rooms, hospitals or manufacturing plants, with little heavy lifting.
Typical employers
Medical device manufacturers, pharmaceutical and biotechnology companies, hospitals and health systems, universities and research institutes, government research and regulatory agencies, and engineering consulting firms.

FAQ

Frequently asked questions

Do biomedical engineers need a Professional Engineer license?

A Professional Engineer license is optional and rarely required in this field. Most employers prioritize practical design experience, knowledge of FDA design control rules, and degrees from accredited programs over state licensure. Biomedical engineers working in medical device manufacturing or clinical settings can advance without it, though some consulting firms may value the credential.

What degree is required to become a biomedical engineer?

A bachelor's degree in biomedical engineering or another engineering discipline is the standard entry requirement. Programs accredited by ABET are often preferred by employers. Students also enter the field with degrees in mechanical or electrical engineering. Advanced roles in research or university faculty positions usually require a master's degree or a PhD.

Can biomedical engineers work remotely?

Biomedical engineers can work remotely on a partial basis for tasks such as computer modeling, simulation, and regulatory documentation. However, testing prototypes, working in clean rooms, supporting factory production lines, and maintaining equipment in hospitals require on-site presence. Because of these physical requirements, most employers offer hybrid schedules rather than fully remote positions.

Where do biomedical engineers typically work?

Biomedical engineers typically work for medical device manufacturers, pharmaceutical companies, biotechnology firms, hospitals, universities, government research agencies, and consulting firms. Most spend their working hours in offices and research laboratories. Some roles involve time in clean rooms, hospital clinical wings, or manufacturing plants to oversee equipment performance.

How does artificial intelligence affect biomedical engineering?

Artificial intelligence speeds up simulation, data analysis, and documentation drafting in biomedical engineering workflows. Algorithms can evaluate large biological datasets and optimize device models faster than manual methods. However, core engineering judgment, physical prototype testing with clinicians, and legal regulatory accountability remain strictly human responsibilities that AI cannot replace.

What are the typical working hours for a biomedical engineer?

Biomedical engineers work full time on a standard weekday daytime schedule. Evening shifts and on-call duty are rare, occurring mostly in specific hospital clinical engineering roles. Occasional overtime happens when project teams face tight deadlines for regulatory submissions or upcoming commercial product launches. Most employers provide predictable daytime hours.

In depth

All about biomedical engineer

The background, context and details.

Daily work in medical technology

Biomedical engineers turn biological concepts into functional medical hardware. They build implants, test prosthetics, and create diagnostic tools. Lab testing demands precision. While computer simulations and mathematical models can predict how a device responds to human tissue, engineers still spend significant laboratory hours verifying those digital results against physical prototypes. Daily duties change as projects move from early concepts to finished commercial devices. Teams collaborate directly with doctors to understand practical clinical needs. When problems arise on production lines, engineers evaluate manufacturing machinery and validate processes. Others inspect clinical equipment in hospitals to maintain patient safety.

Design and regulatory responsibilities

Device development requires strict compliance with federal standards. Quality rules are strict. Medical device work must follow FDA design control and quality system rules. Engineers must write comprehensive verification reports, risk assessments, and test summaries for every product submission. Documentation takes up a substantial portion of the engineering schedule. Engineers maintain traceable design histories from initial component sketches through final sterilization studies. Because human lives depend on these instruments, every design change requires recorded proof. Before any surgical tool or implant reaches a hospital operating room, biomedical engineers must run exhaustive mechanical stress tests in the laboratory to ensure that the device never fails during medical procedures.

Typical work environments

Engineers divide their time across multiple settings depending on their project phase:

  • Medical device manufacturing facilities
  • Research laboratories at universities
  • Clean rooms and production floors
  • Clinical suites in hospitals Office computers run CAD software and simulation tools before anyone builds physical hardware. Clean rooms require specialized gear to prevent dust contamination during device assembly. Hybrid arrangements are common for documentation tasks, but physical testing keeps engineers tied to lab facilities.

Career pathways and preparation

Most engineers enter the field through a bachelor's degree program accredited by ABET. Some complete undergraduate degrees in mechanical or electrical engineering before shifting into healthcare technology. Entry-level associate engineers spend their early career running verification protocols and assisting senior staff. With gained experience, professionals advance into senior or principal roles where they lead complex programs. Review open associate engineering positions at device manufacturing companies to identify current hiring requirements.