Bioengineering and Biomedical Engineer
SOC 17-2031.00 · ESCO 2149 · OSCA 243933
Role snapshot
Overview
Designs medical devices, prosthetics, and diagnostic equipment by combining engineering principles with biological science. This role involves researching, developing, and testing innovative solutions to improve human health, often prototyping implants or imaging tools, running bench tests, and collaborating with clinicians to refine designs for patient safety and efficacy.
Improves patient care and quality of life by developing advanced medical technologies, from life-saving implants to diagnostic tools, contributing directly to advancements in healthcare.
On the job
- Research and develop new medical devices, instruments, and software
- Design and test prototypes of biomedical equipment, such as artificial organs, prostheses, and surgical tools
- Collaborate with medical professionals to identify clinical needs and refine product designs
- Conduct experiments and analyze data to evaluate the safety and effectiveness of new products
- Prepare technical reports and documentation for regulatory submissions and product specifications
Tools & technology
Average salary
Job outlook
GrowingJob growth is expected to be above average over the next five years.
Education & training
Bachelor's or Master's degree in biomedical engineering, bioengineering, or a related engineering discipline is typically required.
AI impact outlook
Note — this is our current view. AI is moving fast, so we revisit these ratings.
Show how this was assessed Hide the detail
Note — this is our current view. AI is moving fast, so we revisit these ratings.
Show how this was assessed Hide the detailWhy this role received this rating
Core task exposure
high
How much of the role’s important work could AI perform?
AI can significantly assist with design iterations, data analysis, and regulatory documentation in this role.
End-to-end automation
moderate
Can AI complete the work without substantial human involvement?
While AI can generate designs and analyze data, the integration into medical devices, physical testing, and especially regulatory submission with clinical accountability, require human intervention.
Adoption pressure
high
How likely are employers to introduce AI into this work?
There is high employer incentive to adopt AI for efficiency in R&D and design optimization, but regulatory caution will temper full automation of critical design phases.
Human dependence
strong
How much does success depend on human judgement, relationships and accountability?
Success in this role heavily relies on understanding complex clinical needs, ethical considerations for patient safety, and collaborative problem-solving with medical professionals.
Protective — a higher rating lowers the overall score.
Role adaptability
strong
How easily can the role evolve as AI takes on more tasks?
The bioengineering field is inherently dynamic, constantly adapting to new scientific discoveries, technological advancements, and evolving medical challenges.
Shown for context — not part of the score.
What AI may take on
These are the parts of the role most likely to be automated or significantly accelerated.
- Generating initial design concepts and iterations for medical devices
- Performing complex simulations (e.g., FEA) and optimizing parameters
- Analyzing large datasets from experiments and clinical trials
- Drafting sections of technical reports and regulatory submissions
- Identifying patterns and potential issues in device performance data
Where people remain essential
These parts continue to depend heavily on human judgement, relationships and accountability.
- Translating abstract clinical needs into actionable engineering requirements
- Collaborating with medical professionals and patients to refine designs
- Conducting hands-on prototyping and intricate bench testing
- Making ethical decisions regarding device safety and human impact
- Navigating complex regulatory pathways and securing approvals
- Overseeing the final integration and validation of medical systems
How the role may evolve
From design iteration to clinical impact.
Engineers will spend less time on iterative design tasks and data crunching, shifting their focus to deeper collaboration with clinicians, ethical oversight, and strategic product development that directly impacts patient outcomes.
Strengthen your future fit
- Develop strong collaboration and communication skills with non-engineers
- Deepen understanding of clinical workflows and patient needs
- Master AI-powered design and simulation tools
- Specialize in regulatory affairs and ethical considerations
- Focus on complex problem framing and interdisciplinary integration
- Assessment horizon
- 3–7 years
- Confidence
- High
- Last reviewed
- August 2026
- Methodology
- v1.0
This assessment reflects current AI capabilities and expected adoption patterns. Actual impacts will vary by industry, employer and the way each role is performed.
Career pathways
WHERE YOU COULD GO
CURRENT ROLE
Bioengineering and Biomedical Engineer
Mechanical & Aerospace
ADJACENT MOVES
STARTING POINTS
Who thrives here
Interest profile
investigative · IRC
People who enjoy combining scientific inquiry with practical, hands-on problem-solving and meticulous adherence to technical standards often thrive in this role.
Personality characteristics
Curious innovator
Driven by a desire to explore new scientific principles and engineering solutions to medical challenges.
Highly disciplined
Meticulously plans and executes complex experiments and designs, ensuring accuracy and adherence to strict protocols.
Focused independent
Prefers deep, concentrated work on technical problems and research, often working independently or in small, specialized teams.
Collaborative problem-solver
Works effectively with cross-functional teams, including clinicians and other engineers, to achieve shared project goals.
Calm under pressure
Maintains composure and objectivity when facing technical challenges or project setbacks, focusing on data-driven solutions.
Best for
- Individuals passionate about applying engineering principles to solve real-world medical problems.
- Those who thrive in structured environments that value precision, scientific rigor, and continuous learning.
Watch out for
- The work can involve long periods of detailed technical analysis and documentation, requiring high focus.
- The regulatory environment is strict, demanding careful adherence to protocols and standards, which can be less appealing for those seeking unrestrained creativity.
A week in the life
A representative working week for a Bioengineering and Biomedical Engineer — where the deep work, meetings, and admin actually land.
Real people. Real results.
Thousands of people
can't be wrong.
Frequently asked questions about Bioengineering and Biomedical Engineer roles
What does a Bioengineering and Biomedical Engineer do?
A Bioengineering and Biomedical Engineer designs medical devices, prosthetics, and diagnostic equipment by combining engineering principles with biological science. This role involves researching, developing, and testing innovative solutions to improve human health, often prototyping implants or imaging tools, running bench tests, and collaborating with clinicians to refine designs for patient safety and efficacy. Improves patient care and quality of life by developing advanced medical technologies, from life-saving implants to diagnostic tools, contributing directly to advancements in healthcare.
How much does a Bioengineering and Biomedical Engineer earn?
A Bioengineering and Biomedical Engineer earns a median of $100,000 per year in the US, typically ranging from $75,000 to $140,000.
What qualifications do you need to become a Bioengineering and Biomedical Engineer?
To become a Bioengineering and Biomedical Engineer, bachelor's or Master's degree in biomedical engineering, bioengineering, or a related engineering discipline is typically required.
What personality suits a Bioengineering and Biomedical Engineer?
Bioengineering and Biomedical Engineer roles tend to suit people who are highly conscientious — precise, organised and strong on follow-through (Conscientiousness 84/100) and open and curious — drawn to variety, ideas and new approaches (Openness 78/100). The traits that matter most in the role are Curious innovator, Highly disciplined, Focused independent and Collaborative problem-solver. Driven by a desire to explore new scientific principles and engineering solutions to medical challenges. On interests, Bioengineering and Biomedical Engineer maps to an IRC Holland Code profile — people who enjoy combining scientific inquiry with practical, hands-on problem-solving and meticulous adherence to technical standards often thrive in this role.
Who does a Bioengineering and Biomedical Engineer role suit?
A Bioengineering and Biomedical Engineer role is usually a strong fit for these reasons. Strong Investigative and Realistic alignment: the role requires deep scientific research and practical engineering application. High Conscientiousness is crucial for meticulous design, testing, and regulatory compliance in a safety-critical field. Opportunities to innovate and directly impact human health provide significant purpose for many.
What are the downsides of being a Bioengineering and Biomedical Engineer?
Bioengineering and Biomedical Engineer roles come with trade-offs worth weighing up. The work can involve long periods of detailed technical analysis and documentation, requiring high focus. The regulatory environment is strict, demanding careful adherence to protocols and standards, which can be less appealing for those seeking unrestrained creativity.
What is the work environment like for a Bioengineering and Biomedical Engineer?
Work as a Bioengineering and Biomedical Engineer is mostly lab-based with hybrid arrangements common, semi-structured — a mix of set processes and self-directed work, a moderate pace and medium exposure to clients or stakeholders. Around 57% of the week is focused deep work.
What skills do you need to be a Bioengineering and Biomedical Engineer?
Core skills for a Bioengineering and Biomedical Engineer include Biomedical device design, Material science, Biomechanics, Prototyping and testing, Data analysis and Regulatory compliance (medical devices).
How do you become a Bioengineering and Biomedical Engineer?
Common entry routes into Bioengineering and Biomedical Engineer roles include Junior Biomedical Engineer, Research Assistant Biomedical, Mechanical Engineer and Electrical Engineer.
What career progression is there for a Bioengineering and Biomedical Engineer?
From a Bioengineering and Biomedical Engineer role, common next steps include Senior Biomedical Engineer and R&D Manager (Medical Devices); lateral moves include Clinical Engineer and Product Manager (Medical Devices).
What is the job outlook for Bioengineering and Biomedical Engineer roles?
The outlook for Bioengineering and Biomedical Engineer roles is currently rated growing. Job growth is expected to be above average over the next five years.
Will AI replace Bioengineering and Biomedical Engineer roles?
Traitstack rates automation risk for Bioengineering and Biomedical Engineer roles at 59 out of 100, which is moderate. AI will accelerate design and analysis, but human ingenuity, clinical collaboration, and ethical accountability for patient safety remain paramount. AI is most likely to take on generating initial design concepts and iterations for medical devices, performing complex simulations (e.g., fea) and optimizing parameters and analyzing large datasets from experiments and clinical trials. Translating abstract clinical needs into actionable engineering requirements, collaborating with medical professionals and patients to refine designs and conducting hands-on prototyping and intricate bench testing stay with people. From design iteration to clinical impact. That score measures how much of the work could change, not the likelihood the job disappears. It is Traitstack's current view, revisited as AI capability moves.