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SOC 17-2031 · O*NET 17-2031.00
Bioengineers and biomedical engineers apply engineering, biology, chemistry, computer science, and biomechanics principles to the design, development, and evaluation of biological, agricultural, and health systems and products; common tasks include evaluating the safety and efficiency and effectiveness of biomedical equipment, designing and developing medical diagnostic or clinical instruments and equipment or processes, conducting experiments and simulations and statistical modeling, writing protocols and policy and standards documents, translating processes from the laboratory to commercial-scale production, researching new materials for implants, preparing cost estimates and project plans, analyzing new medical procedures and designing assistive devices, reviewing processes and developing bioremediation processes, and designing or directing bench or pilot experiments to determine scale-up methods. The U.S. counterpart is O*NET 17-2031.00 (Bioengineers and Biomedical Engineers), in Job Zone Four (considerable preparation needed), and marked Bright Outlook, with an interest code of IRC; this occupation's identity, tasks, work context, and skills, as well as wages and employment and projections, all follow the 17-2031.00 occupation definition (the wage and employment rows on that page do not show a parent occupation name), and this page publishes the page values and labels them at each occurrence; the industry distribution follows the 17-2031.00 occupation definition. No occupation wage entry precisely matching this occupation has been obtained for mainland China; under its evidence standard, only the scientific research and technical services industry average is used as an explicit proxy and labeled at each occurrence as not this occupation's wage, and the industry proxy is not rewritten as the occupation median or starting salary; medical devices, biomaterials, human genetic resources, and personal information in mainland China are governed by personal information protection laws and the Regulations of the People's Republic of China on the Administration of Human Genetic Resources.
Model impact index for three equally weighted representative core tasks; not a measured share of working time or a job-loss probability. floor((50+50+50)/3+0.5)=50; fermatmind-ai-impact-v1; 2026-10-18.
In one sentence: this is an engineering role centered on design, development, verification, and evaluation that combines engineering with biology and medicine and is performed under quality, regulatory, clinical, and ethics requirements, and its core is writing requirements and risks and verification and documentation and changes clearly and accepting review, not producing a prototype that works; its U.S. wages, employment, and projections are taken from the O*NET 17-2031.00 occupation definition and labeled at each occurrence; for mainland China only the scientific research and technical services industry proxy is provided and labeled as not this occupation's wage; conclusions involving medical devices, biomaterials, and human genetic resources must be made under the applicable jurisdiction and institutional rules.
The occupational identity and definition must be verified separately: O*NET lists 17-2031.00 (Bioengineers and Biomedical Engineers) as Job Zone Four (considerable preparation needed) and marks it Bright Outlook: the education field on that page shows respondent answers of 43% bachelor's degree, 26% master's degree, and 13% doctoral degree, and most positions require a four-year bachelor's degree but not all do; the interest code is IRC (Investigative 96, Realistic 74, Conventional 58), and the other interest types are Social 24, Artistic 19, and Enterprising 14. This occupation's wages and employment and projections come from the occupation's own page (the wage and employment rows on that page do not show a parent occupation name): the local wages page gives Workers on average earn $109,370, with annual wage percentiles of 71,850 USD at the 10th percentile, 86,980 USD at the 25th percentile, 109,370 USD at the median, 136,600 USD at the 75th percentile, and 168,180 USD at the 90th percentile; hourly percentiles are 34.55, 41.82, 52.58, 65.68, and 80.86 USD; the employment trends page gives 22,200 employed in 2024, about 23,300 in 2034 (5% for 2024—2034, labeled Faster than average), and 1,300 annual job openings over the projection period; the industry distribution is manufacturing 31%, professional, scientific, and technical services 28%, wholesale trade 12%, health care and social assistance 10%, and other industries 19%. This page publishes the page values and labels this occupation's definition and the data period at each occurrence. Education, vocational training, industry certification, employer appointment, review and approval authority for medical devices and biomaterials and human genetic resources and personal information, and sign-off authority for design and verification and release and external publication are different statuses and must be verified item by item by institution, position, and jurisdiction. For mainland China this round only the scientific research and technical services industry average is used as an explicit proxy and labeled at each occurrence as not this occupation's wage, and no occupation-level figures are published.
Career direction comparison
The table below compares bioengineers and biomedical engineers with five adjacent directions on the same set of dimensions: career direction, core work and output, key differences, and the choice that fits each preference better.
| Career direction | Core work and output | Key differences | Best-fit choice |
|---|---|---|---|
| Bioengineers and biomedical engineers and chemical engineers | Complete chemical process and plant design and optimization, with outputs mainly being process packages and design documents and operation optimization plans. | Chemical engineers focus mainly on the design and optimization of chemicals and process operations, leaning toward chemical plant equipment and reactions and separation and scale-up; bioengineers and biomedical engineers focus mainly on biological and medical systems and devices and instruments and software, and must also consider clinical use and biocompatibility and the regulatory pathway. | If you would rather do chemical process and plant design and optimization, compare chemical engineers first; if you would rather do the design and verification of biological and medical systems and devices, this occupation fits. |
AI impact on this career
Editorial task impact and control suggestion — conclusion: AI and automation may assist literature search, data organization, statistics, simulation, and document drafts; the sources consulted this round provide no evidence that it will wholly replace requirement, risk, and use scenario confirmation, the definition of plans and verification methods, anomaly and failure and risk judgment, or decisions on design confirmation, release, and handling of human genetic resources and personal information; the spread of tools does not equal a change in the number of positions, and under the O*NET 17-2031.00 occupation definition employment for this occupation grows 8% from 2025—2035 (Much faster than average). The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. AI Impact Score 50% is an editorial estimate. Model impact index for three equally weighted representative core tasks; not a measured share of working time or a job-loss probability. floor((50+50+50)/3+0.5)=50; fermatmind-ai-impact-v1; 2026-10-18.The three tasks, ratings and sources are listed in the FermatMind method source record on this page.
FermatMind AI Impact Score estimation method v1
FermatMind / 费马测试 · 2026-10-18
Chinese mainland salary reference
Editorial position and background check — occupation comparison: the U.S. O*NET 17-2031.00 (Bioengineers and Biomedical Engineers), whose identity and tasks and work context and skills, as well as wages and employment and projections, all follow this occupation's definition, and whose industry distribution follows this occupation's definition; this page has not obtained a public mainland China occupation wage entry precisely matching 17-2031.00 and uses only the scientific research and technical services industry average as an explicit proxy, and the Chinese page language does not constitute an equivalent mapping. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position.
U.S. salary reference
May2025 median annual wage for this occupation 109,370 USD and hourly 52.58 USD; industry medians are below and are not personal quotes.
| Wage statistical position | Annual wage reference | Conversion boundaries | How to understand this position |
|---|---|---|---|
| Lowest 10% | 71,850 USD per year (10th percentile) | Official annual wage, not an individual monthly income | The 10th percentile is an annual wage of 71,850 USD (this occupation's 17-2031.00 definition); this is the low end of the distribution, does not represent all newcomers, and is not an income promise. |
| Median (50%) | 109,370 USD per year (median) | Official annual wage, not an individual take-home amount | The median is an annual wage of 109,370 USD (this occupation's 17-2031.00 definition); it describes the midpoint of this occupation's distribution, not an individual take-home income. |
Career fit guide
Editorial fit check — direct answer: observable work behaviors include being willing to chase every design conclusion back to the experiment and simulation and verification basis, keeping records consistent under requirement changes and milestone pressure, handling anomalies and risks to procedure and leaving traces, and handing design confirmation and external data provision problems beyond your authorization to authorized people; liking both biology and engineering or being able to use one simulation software package alone cannot decide this. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
You may be better suited to： Editorial fit check: you can carry out design and verification according to design control and honestly record conditions and data and anomalies, handle biomaterial and laboratory and data and compliance risks to institutional rules, stop and review and report when data are insufficient or risks are unacceptable or work exceeds your authorization, and accept evaluation and review and correction. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
These situations require caution： Editorial fit check: you only want to build a prototype and are unwilling to do verification and documentation and risk analysis; you treat delivering first and backfilling the basis later as acceptable; or you skip approvals for human genetic resources and personal information and ethics and laboratory safety; situations requiring caution also include difficulty adapting to requirement changes and milestone pressure and multi-role communication. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
Work pressure, risks, and career boundaries
Editorial risk and control verification — direct answer: key risks include exceeding design and verification authorizations, product safety and biocompatibility and sterilization and electrical safety risks, design history and test data and change records that cannot be traced, model and automatically generated results being treated as confirmed design conclusions, long screen and bench work and milestone overtime workload, and exceeding boundaries when providing clinical data and human genetic resources and design data externally; controls are to first confirm requirements and risks and authorization and the data use scope and identify risks, carry out design and verification according to the quality system and design control and record honestly, handle anomalies and risks and deviations and changes to procedure, review and deliver and provide data within the authorized scope, and stop and escalate when you exceed authorization or find anomalies. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
O*NET Updated2026: 30 tasks, 23 core and 7 supplemental, all with importance scores; core tasks are equipment safety evaluation 84, technical reports 82, medical instrument design 80, biological systems engineering research 78, hardware and software 77, databases and statistical models 73, follow-up experiments 68, equipment protocol and standards 66, and regulatory communication and laboratory to commercial-scale translation 64. Medical procedure evaluation 62, assistive device design and delivery 59, production problem advice 50, process optimization 47, bioremediation and process change research 44, and bench and pilot scale-up 41 are supplemental; this does not mean everyone performs all tasks or holds clinical practice authority. 41 activities, 23 detailed activities, and 57 context items; basic skills 10, transferable skills 25, knowledge 33, and abilities 52 all have scores. Dynamic flexibility, dynamic and explosive strength, glare tolerance, gross body coordination and balance, night vision, sound localization, limb speed, and stamina, 10 abilities in total, are rated 0 as actual ratings and are not filled in as missing data. 21 work styles and 41 specific interest areas all have scores. All 57 U.S. context items show graded percentages: accuracy 61% extremely important, 17% very important, and 17% important; email 87% daily and 13% weekly but not daily; team work 48% extremely important and 43% very important; environmentally controlled indoors 70% daily and 22% weekly but not daily. Sitting is 17% continually, 65% more than half the time, and 17% about half the time; standing is 17% about half the time and 83% less than half the time. A typical week is 43% more than 40 hours and 57% exactly 40; deadlines are 43% weekly but not daily and 48% monthly but not weekly. Consequences of error are 17% very serious, 22% serious, and 48% fairly serious; safety responsibility is 13% very high, 35% high, 22% moderate, and 30% limited; effect on results is 48% important and 39% moderate. Decisions are 18% a lot of freedom, 64% some, and 18% limited, and task priority is 13% a lot, 74% some, and 13% limited; deciding is 17% weekly but not daily, 43% monthly but not weekly, and 39% yearly but not monthly. Schedules are 77% regular with fixed arrangements and 14% irregular, which is not the same as a day shift or no shift work. Traditional automation is 30% moderate, 48% slight, and 13% none, not a GenAI adoption rate. Disease or infection exposure is 13% monthly but not weekly, 39% yearly but not monthly, and 35% never; minor burns or cuts are 30% yearly but not monthly and 61% never; noise is 17% weekly but not daily, 22% monthly but not weekly, 43% yearly but not monthly, and 17% never. Graded exposure is not an illness or incident rate, and categories that are not listed are not normalized.
Getting started, qualifications, and career development
U.S. new-entrant education responses: 43% bachelor's, 26% master's, and 13% doctorate; this is not the current workforce education distribution, and the displayed items are not forced to sum. Job Zone4/SVP7 to below 8 is the preparation level for the occupational group, not a fixed individual training duration or a Chinese qualification. BLS states that a relevant engineering bachelor's degree is usual, some positions require graduate study, and leading research teams usually requires graduate study. The 311 U.S. related training directory records are based on the IPEDS2025—26 directory, 2024—25 degree records, and CIP mapping, and include undergraduate and graduate programs; they do not equal 311 real-time enrollment programs. The apprenticeship area has only the general entry point, and specific open programs, conditions, costs, and pay were not verified. The U.S. directory of 10 related third-party certifications covers IRB and IACUC administration, medical device auditing, reliability, clinical engineering, electronics and imaging repair, student engineering fundamentals, and the PE examination; these are not a Chinese national qualification, a threshold for all biomedical engineers, or authorization for clinical practice or product release.
Career prospects and moving to related occupations
U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
United States · exact
23,800 people (2025 U.S. 17-2031).
Employment size (this occupation's 17-2031.00 definition)
U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
Apply engineering, biology, chemistry, computer science, and biomechanics principles to the design, development, and evaluation of biological, agricultural, and health systems and products, such as artificial organs and prostheses and instruments and medical information systems and health management and care delivery systems. Common tasks include evaluating the safety and efficiency and effectiveness of biomedical equipment; writing technical reports and data summary documents or research articles for scientific publication and regulatory submission and patent applications; designing or developing medical diagnostic or clinical instruments and equipment or processes; collaborating with life scientists and chemists and medical scientists to study the engineering aspects of biological systems; modifying or designing computer hardware or software for medical science uses; maintaining experimental databases; developing statistical models or simulations; reading current literature to keep up with advances; managing engineering teams; developing models of human biobehavioral systems; designing and conducting follow-up experiments; writing protocols and standards documents for the use and maintenance and repair of medical devices; communicating with regulatory agencies about licensing or compliance responsibilities; developing methods to transfer processes from the laboratory to commercial-scale production; working with production or quality personnel to prepare specifications and standard operating procedures; researching new materials for implants; preparing project plans for equipment or facility improvements; consulting with chemists or biologists on new technologies; communicating with research and biomanufacturing personnel about design and production compatibility; recommending process formulations or instrument specifications; communicating with suppliers about designs and specifications; conducting training and teaching; advising hospital administrators on the planning and procurement and use of medical equipment; analyzing new medical procedures; designing and delivering assistive devices such as prostheses; advising production personnel on bioproduction process problems; reviewing existing processes to improve yield or reduce variation; developing bioremediation processes; leading research to change process sequences or operating plans; and designing or directing bench or pilot experiments to determine scale-up methods.
Choose a real task from this page for a small practice project or a conversation with someone in the field. Use the planning guides to set a date, an output and feedback questions before deciding whether to continue.
Signals to keep exploring: you are willing to chase a design conclusion back to the bench or pilot data, the verification plan, and the regulatory basis; you can handle engineering constraints and biological and clinical and patient safety requirements at the same time and keep records consistent; when data are insufficient, risks are unacceptable, or requirements change, you are willing to stop and review and report honestly rather than pushing the product out first; and you are willing to stop and follow the review and approval process when medical devices, biocompatibility, human genetic resources, personal information, or work beyond your authorization are involved.
Conditions for pausing further investment: you have not yet completed, under any supervised conditions, one full closed loop of requirement and risk confirmation, design of the plan and verification, experiments or simulations and data collection, review of results and risks and compliance, and documentation and review and change records; or you can only explain your interest by saying you like both biology and engineering or can use one simulation software package. Also, do not treat having taken biology or engineering courses or being able to use CAD as proof that you can independently decide medical device designs or independently handle human genetic resources and clinical data and biocompatibility conclusions. Medical devices, biomaterials, human genetic resources, and personal information must be handled under the applicable jurisdiction, competent department, and institutional rules with records kept; this page does not provide any way of circumventing regulation.
In one sentence: bioengineers and biomedical engineers are not a job where drawing the drawings is enough; they are a role that applies engineering and biological and medical principles to the design, development, and evaluation of biological, agricultural, and health systems and products: the official duty is to apply engineering, biology, chemistry, computer science, and biomechanics principles to the design, development, and evaluation of biological, agricultural, and health systems and products, such as artificial organs and prostheses and instruments and medical information systems and health management and care service systems; common tasks include evaluating the safety and efficiency and effectiveness of biomedical equipment, writing technical reports and data summary documents or research articles for scientific publication and regulatory submission and patent applications, applying engineering and biobehavioral principles to design or develop medical diagnostic or clinical instruments and equipment or processes, collaborating with life scientists and chemists and medical scientists to study the engineering aspects of biological systems such as the human body, modifying or designing computer hardware or software for medical science uses, maintaining databases of experimental characteristics or results, developing statistical models or simulations with statistical or modeling software, reading current scientific or industry literature to keep up with advances, managing engineering teams through scheduling and inventory and budgets and contracts and milestones, developing models or computer simulations of human biobehavioral systems, designing and conducting follow-up experiments based on existing data to reach defined process goals, writing protocols and policy and standards documents describing the use and maintenance and repair of medical devices, communicating with biological regulatory agencies about licensing or compliance responsibilities, developing methods to transfer processes or biological processes from the laboratory to commercial-scale production, working with production or quality assurance personnel to prepare product specifications or safety sheets and standard operating procedures, researching new materials for products such as implantable artificial organs, preparing project plans for equipment or facility improvements including timelines and budget estimates or capital expenditure, consulting with chemists or biologists to develop or evaluate new technologies, communicating with research and biomanufacturing personnel to ensure compatibility between design and production, recommending process formulations or instrument or equipment specifications based on bench or pilot experiment results, communicating with suppliers about the design or specifications of bioproduction equipment or instruments or materials, conducting training or special-topic teaching so clinical and other personnel can use equipment correctly, advising hospital administrators on the planning and procurement and use of medical equipment, analyzing new medical procedures to predict possible outcomes, designing and delivering assistive devices such as prostheses to help people with disabilities, advising production personnel on problems in fermentation or filtration or other bioproduction processes, reviewing existing production processes to identify opportunities to improve yield or reduce variation, developing bioremediation processes to reduce pollution or protect the environment or treat waste, leading research to review or recommend changes to process sequences or operating plans, and designing or directing bench or pilot production experiments to determine scale-up methods that optimize yield and minimize cost; it does not suit people who only want an engineer title without reading regulatory, clinical, and quality requirements, who are unwilling to do verification and risk and traceable records, or who are unwilling to stop when medical devices, human genetic resources, personal information, or work beyond their authorization are involved.
Bioengineers and biomedical engineers (U.S. counterpart O*NET 17-2031.00, Bioengineers and Biomedical Engineers) apply engineering and biological and medical principles to the design, development, and evaluation of biological, agricultural, and health systems and products, and the official duty statement is Apply knowledge of engineering, biology, chemistry, computer science, and biomechanical principles to the design, development, and evaluation of biological, agricultural, and health systems and products, such as artificial organs, prostheses, instrumentation, medical information systems, and health management and care delivery systems. The O*NET official task list contains 30 items, including evaluating the safety and efficiency and effectiveness of biomedical equipment, writing technical reports and data summary documents or research articles for scientific publication and regulatory submission and patent applications, designing or developing medical diagnostic or clinical instruments and equipment or processes, collaborating with life scientists and chemists and medical scientists to study the engineering aspects of biological systems such as the human body, modifying or designing computer hardware or software for medical science uses, maintaining databases of experimental characteristics or results, developing statistical models or simulations with statistical or modeling software, reading current scientific or industry literature, managing engineering teams through scheduling and inventory and budgets and contracts and milestones, developing models or computer simulations of human biobehavioral systems, designing and conducting follow-up experiments based on existing data to reach defined process goals, writing protocols and policy and standards documents describing the use and maintenance and repair of medical devices, communicating with biological regulatory agencies about licensing or compliance responsibilities, developing methods to transfer processes or biological processes from the laboratory to commercial-scale production, working with production or quality assurance personnel to prepare product specifications or safety sheets and standard operating procedures, researching new materials for products such as implantable artificial organs, preparing project plans for equipment or facility improvements, consulting with chemists or biologists to develop or evaluate new technologies, communicating with research and biomanufacturing personnel to ensure compatibility between design and production, recommending process formulations or instrument or equipment specifications based on bench or pilot experiment results, communicating with suppliers about the design or specifications of equipment or instruments or materials, conducting training or special-topic teaching so clinical and other personnel can use equipment correctly, advising hospital administrators on the planning and procurement and use of medical equipment, analyzing new medical procedures to predict possible outcomes, designing and delivering assistive devices such as prostheses, advising production personnel on problems in fermentation or filtration or other bioproduction processes, reviewing existing production processes to identify opportunities to improve yield or reduce variation, developing bioremediation processes, leading research to review or recommend changes to process sequences or operating plans, and designing or directing bench or pilot production experiments to determine scale-up methods. This occupation is in Job Zone Four on O*NET, is marked Bright Outlook, and has an interest code of IRC; the education field on that page shows 43% bachelor's degree, 26% master's degree, and 13% doctoral degree; sample job titles on the page include Biomedical Engineer, Biomedical Technician, Engineer, Process Engineer, and Research Engineer. This occupation's identity, tasks, work context, and skills, as well as the page's wages and employment and projections, all follow the 17-2031.00 occupation definition; the industry distribution follows this occupation's definition. Medical devices, biomaterials, human genetic resources, and personal information in mainland China are constrained by the relevant laws and regulations and ethics requirements; this page cites only their scope of application and conduct boundaries.
Editorial workflow and deliverable check: the work of bioengineers and biomedical engineers can be divided into three categories: design and development (applying engineering and biobehavioral principles to design or develop medical diagnostic or clinical instruments and equipment or processes; modifying or designing computer hardware or software for medical science uses; developing models or computer simulations of human biobehavioral systems; developing statistical models or simulations with statistical or modeling software; designing and conducting follow-up experiments based on existing data to reach defined process goals; designing and delivering assistive devices such as prostheses to help people with disabilities; and designing or directing bench or pilot production experiments to determine scale-up methods that optimize yield and minimize cost); evaluation and verification and compliance (evaluating the safety and efficiency and effectiveness of biomedical equipment; maintaining databases of experimental characteristics or results; writing protocols and policy and standards documents describing the use and maintenance and repair of medical devices; communicating with biological regulatory agencies about licensing or compliance responsibilities; reviewing existing production processes to identify opportunities to improve yield or reduce variation; developing bioremediation processes to reduce pollution or protect the environment or treat waste; and analyzing new medical procedures to predict possible outcomes); and translation and collaboration and project management (collaborating with life scientists and chemists and medical scientists to study the engineering aspects of biological systems such as the human body; developing methods to transfer processes or biological processes from the laboratory to commercial-scale production; working with production or quality assurance personnel to prepare product specifications or safety sheets and standard operating procedures; researching new materials for products such as implantable artificial organs; preparing project plans for equipment or facility improvements including timelines and budget estimates or capital expenditure; consulting with chemists or biologists to develop or evaluate new technologies; communicating with research and biomanufacturing personnel to ensure compatibility between design and production; recommending process formulations or instrument or equipment specifications based on bench or pilot experiment results; communicating with suppliers about the design or specifications of equipment or instruments or materials; conducting training or special-topic teaching so clinical and other personnel can use equipment correctly; advising hospital administrators on the planning and procurement and use of medical equipment; managing engineering teams through scheduling and inventory and budgets and contracts and milestones; writing technical reports and data summary documents or research articles for scientific publication and regulatory submission and patent applications; and reading current scientific or industry literature to keep up with advances). What the three categories share is writing requirements and constraints and verification and risks and documentation clearly, rather than building a prototype first and backfilling the basis. Specific procedures should be verified by product and institutional responsibility.
Design and development
Bioengineers and biomedical engineers focus mainly on design and verification that combines engineering with biology and medicine; chemical engineers focus mainly on the design and optimization of chemicals and process operations; data scientists focus mainly on data modeling and algorithms and productization; clinical data managers focus mainly on clinical trial data management and quality and compliance; bioinformatics technicians focus mainly on retrieving biological data and maintaining scripts and databases; natural sciences managers focus mainly on research organization and people and budgets and compliance management; nanosystems engineers focus mainly on designing nanoscale devices and systems; materials scientists focus mainly on material structure and properties and processing; and medical equipment repairers focus mainly on installing and maintaining and repairing medical equipment. Adjacent positions share common knowledge of engineering and biology and records, but their core subjects, deliverables, review and authorization, and responsibilities differ, and work involving medical devices, human genetic resources, and personal information is also constrained by the requirements of the respective jurisdiction and institution.
| Dimension | Primary track |
|---|
Confirm use scenarios and requirements and risks and the regulatory pathway with clinical and market and quality parties, and state in advance the available resources and authorization boundaries.
Define design inputs and outputs and verification and validation methods according to design control requirements, and specify measurable indicators and acceptance criteria.
Conduct bench or pilot experiments or simulations to plan, honestly record conditions and data and instruments and method versions, and review anomalies and deviations.
Review risk and compliance and manufacturability and cost constraints, and mark the parts needing retest or review and needing risk assessment.
Write plans and reports and verification records and accept review, record plan changes and software versions and traces of manual handling under change control, and do not selectively record.
When design confirmation and release or human genetic resources and personal information or external publication and regulatory communication are involved, seek approval through the authorization chain and stop and report when you exceed your authorization.
Editorial entry verification: employer entity and product or task, education and training, applicable certificates, quality and design responsibilities, data use permissions, and contract shifts and pay. The U.S. directory of 10 related third-party certifications covers IRB and IACUC administration, medical device auditing, reliability, clinical engineering, electronics and imaging repair, student engineering fundamentals, and the PE examination; these are not a Chinese national qualification, a threshold for all biomedical engineers, or authorization for clinical practice or product release.
Occupational definition
| Bioengineers and biomedical engineers and data scientists | Complete data modeling and algorithms and productization, with outputs mainly being models and code and data products. | Data scientists focus mainly on data modeling and algorithms and productization, leaning toward statistics and machine learning and engineered data pipelines; bioengineers and biomedical engineers focus mainly on the design and verification of physical systems and devices and processes, and must handle hardware and materials and clinical use constraints. | If you would rather do modeling and algorithms and data products, compare data scientists first; if you would rather do the design and verification of devices and systems and processes, this occupation fits. |
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| Bioengineers and biomedical engineers and clinical data managers | Complete clinical trial data management and quality and submission, with outputs mainly being data management plans and quality and submission materials. | Clinical data managers focus mainly on clinical trial data collection and quality and compliance and submission; bioengineers and biomedical engineers focus mainly on the design, development, and verification of devices and systems and processes, and must handle engineering calculation and prototyping and testing. | If you would rather do clinical trial data and compliance management, compare clinical data managers first; if you would rather do device and system design and verification, this occupation fits. |
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| Bioengineers and biomedical engineers and bioinformatics technicians | Complete data retrieval and scripting and database maintenance, with outputs mainly being datasets and scripts and query records. | Bioinformatics technicians focus mainly on retrieving biological data and maintaining scripts and databases, and do not take on the engineering design and verification of devices and processes; bioengineers and biomedical engineers focus mainly on engineering design and verification, and must handle hardware and materials and regulatory requirements. | If you would rather do data retrieval and scripting and database maintenance, compare bioinformatics technicians first; if you would rather do engineering design and verification, this occupation fits. |
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| Bioengineers and biomedical engineers and natural sciences managers | Complete research organization and resource and compliance management, with outputs mainly being management plans and budgets and compliance records. | Natural sciences managers are responsible mainly for research organization and people and budgets and compliance management and do not take on day-to-day design and experiments; bioengineers and biomedical engineers focus mainly on design and verification and experiments and documentation. | If you would rather do research organization and people and budget management, compare natural sciences managers first; if you would rather do design and verification and experiments, this occupation fits. |
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| Bioengineers and biomedical engineers and nanosystems engineers | Complete nanodevice and system design and manufacturing, with outputs mainly being device designs and process and characterization data. | Nanosystems engineers focus mainly on the design and manufacture of nanoscale devices and materials and systems; bioengineers and biomedical engineers focus mainly on biological and medical systems and devices and clinical use, and must also consider biocompatibility and the regulatory pathway. | If you would rather do nanoscale devices and manufacturing, compare nanosystems engineers first; if you would rather do medical and biological systems and devices, this occupation fits. |
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The six directions share common knowledge of engineering and data and records, but their core subjects, deliverables, and review and authorization requirements differ; the same research and development experience cannot be converted directly into the authorization or sign-off scope of another direction (for example, whether medical device design confirmation and release and human genetic resources and personal information are involved differs substantially), and this page compares only the duty differences under public definitions.
Conclusion: the basis for choosing a direction is the core subject, deliverables, and review, authorization, and compliance requirements, not whether they all work in engineering or the life sciences; once the direction is set, verify item by item the actual requirements of the target direction for education, training, certification, design confirmation, and authorization to provide data externally.
Editorial ratings use the existing occupational responsibilities and AI task analysis on this page. They are not adoption rates, measured effects, job-disappearance or personal-unemployment probabilities, or official scores from Stanford or another external institution. No measured time weights or future robot deployment are assumed.
Editorial task impact and control suggestion: what can be assisted are rollback-capable steps such as literature search and data and document and result summaries; these are assistance capabilities, and output still needs human checking and recomputation before use. Technical feasibility does not equal adoption, and does not mean design and regulatory risks are controlled. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: it depends on the institution's quality system and design and risk management maturity, regulatory and clinical and ethics review arrangements, and data and permission management; this page does not speculate about adoption progress and has no adoption rate statistics for this occupation. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Task exposure, actual adoption, engineering quality, and employment counts are different; the ILO2025 public summary explains global ISCO task exposure. U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
| Work area | Task | Current change | Human control point |
|---|---|---|---|
| Editorial task impact and control suggestion: design and data authorization boundaries; the actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Verify project authorization and your own permissions and data use authorization and biomaterial and laboratory safety conditions, and complete training and obtain the corresponding authorization to procedure when clinical data, human genetic resources, and biomaterials are involved. | Editorial task impact and control suggestion: institutional and regulatory materials can be assisted by tools, but compliance and engineering judgments and authorization responsibility remain with you and the institution. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Editorial task impact and control suggestion: judge whether this design and verification activity falls within the institutional quality system and authorization scope. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. |
| Editorial task impact and control suggestion: design and verification implementation and records; the actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Implement according to design control and verification procedures, conduct bench or simulation work and honestly record conditions and data and anomalies, and keep the basis and the implementation process together. | Editorial task impact and control suggestion: search and organization and documentation can be assisted, but design and verification judgments remain with you and the reviewers. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Editorial task impact and control suggestion: judge whether this requirement and use scenario and risk are clear and whether the tools and data and permissions support the intended method. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. |
| Editorial task impact and control suggestion: result review and retest; the actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Check results against procedures and controls and replicates and instrument calibration and method versions, review and retest anomalies first and handle them to procedure, and record instruments and methods and software versions and traces of manual handling. | Editorial task impact and control suggestion: statistics and visualization can use tools, but responsibility for judging result usability and risk remains with you. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Editorial task impact and control suggestion: judge whether data and results are usable and whether anomalies and deviations and failures have been reviewed and retested. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. |
| Editorial task impact and control suggestion: keeping the design history and verification records; the actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Keep the design history and test data and reports and change records as required by the institutional quality system and regulations, keep versions searchable and follow access permissions, and manage them according to retention periods and destruction and sharing limits. | Editorial task impact and control suggestion: archiving can use systems, but responsibility for completeness and compliance remains with you. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Editorial task impact and control suggestion: judge whether the design history and test data and change and risk records are kept to procedure and are traceable. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. |
| Editorial task impact and control suggestion: providing data and information externally; the actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Handle the external provision of design data and test data and clinical data according to institutional rules, honestly state the data scope and uncertainty, and obtain institutional approval when human genetic resources and personal information and unpublished or commercial data are provided externally. | Editorial task impact and control suggestion: documentation and organization can be assisted, but compliance responsibility for external provision remains with you and authorized personnel. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Editorial task impact and control suggestion: judge whether providing data and results and design information and process information externally exceeds boundaries. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. |
| Editorial task impact and control suggestion: boundaries of ethics and data use and research integrity; the actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | If situations such as not obtaining ethics review or data use authorization or using data beyond scope are found, stop the related activity immediately and report to procedure and cooperate with the investigation; do not participate in or assist with it. | Editorial task impact and control suggestion: institutional and regulatory materials can assist, but compliance judgments and decisions to stop activities and report remain with you and authorized personnel. This page does not provide any way of circumventing regulation. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Editorial task impact and control suggestion: judge whether clinical trial data or human genetic resources or patient personal information and other situations requiring approval are involved. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. |
| Editorial task impact and control suggestion: approval and training for special situations; the actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | For situations requiring special approval, obtain the approval or filing to procedure and complete training and safety and confidentiality preparation before starting, and do not start when conditions are not met. | Editorial task impact and control suggestion: institutional and regulatory materials can assist, but judgments about whether conditions are met and whether to proceed remain with you and authorized personnel; this page does not provide any way of circumventing regulation. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. | Editorial task impact and control suggestion: judge whether this work involves human genetic resource collection and external provision or patient personal information processing or clinical trial data use and other situations requiring special approval. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems. |
Editorial task impact and control suggestion: the five evidence cards below explain the source, the research object, the conclusion, and the limits on use; they support the official duties, task definitions, software skills signals, employment projections, and industry distribution, and are not a prediction of AI-driven job change or an automation replacement rate; the overall employment projection is not attributed to AI. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: the table below compares three groups of steps in terms of automation impact: which can be assisted and which judgments and responsibilities still rest with people. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
AI primarily changesEditorial task impact and control suggestion: literature search and review drafts, data organization and statistics and plotting, simulation parameter sweeps and result summaries, and design document and verification report draft generation can be assisted. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Human responsibility remainsEditorial task impact and control suggestion: confirm requirements and risks and use scenarios and take design responsibility, define plans and verification methods and judge whether anomalies and failures and risks are acceptable, handle biomaterial and laboratory and data related risks, and ensure design confirmation and release and external publication are carried out to procedure. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
AI primarily changesEditorial task impact and control suggestion: design inputs and outputs and verification and test and change records can be summarized and compared with system assistance. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Human responsibility remainsEditorial task impact and control suggestion: judge whether data are usable by combining bench and test data with instrument calibration and method versions, and do not treat model output or automated analysis results as confirmed design conclusions. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
AI primarily changesEditorial task impact and control suggestion: reports and charts and verification and change documents can be generated and archived automatically. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Human responsibility remainsEditorial task impact and control suggestion: judge whether records are reviewable and traceable, and stop and report when data are insufficient, risks are unacceptable, or work exceeds your authorization. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: when tools enter the design and verification workflow, the human control points should be fixed according to the following five steps; missing any step should not expand the scope of use. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: first confirm this requirement and use scenario and risk and institutional authorization boundaries, the available tools and data and systems and permissions, and the requirements for reproducing and retaining the design history and test data and records, and clarify the handling and sharing limits for clinical data and human genetic resources and personal information and biomaterials. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: give only rollback-capable, reviewable steps to tools, such as literature search and review drafts, data organization and statistics and plotting, and simulation result summaries and document and report draft generation. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: check model output and automatically generated results yourself against bench and test data and instrument calibration and method versions, record deviations and anomalies, and do not treat system output as confirmed design conclusions. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: honestly keep records of requirements and design inputs and outputs and verification and test data and methods and versions and changes, so that design and verification are reproducible and traceable, and retain and store them as required by the institution and regulations. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: decisions involving design confirmation and release and biocompatibility and sterilization and electrical safety conclusions, the collection and use and external provision of human genetic resources and personal information, and external publication and patent applications and regulatory communication are handled by authorized personnel and the quality and regulatory and ethics management departments under the applicable jurisdiction and institutional rules; stop and report when data are insufficient, risks are unacceptable, or work exceeds your authorization. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: treating model output or automated analysis results as confirmed design conclusions leads to wrong design judgments, non-reproducible verification, misleading risk conclusions, and product safety risks. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Control: Editorial task impact and control suggestion: mark system output as reference and adopt it only after checking it against bench and test data and instrument calibration and method versions. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: clinical and patient data and human genetic resource data and unpublished design and process data may involve privacy and compliance and trade secrets, and sending them out or handling them improperly creates compliance and trust risks. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Control: Editorial task impact and control suggestion: handle clinical and patient data and human genetic resource data and commercial data under the applicable jurisdiction and institutional requirements, follow the authorized scope and the principles of least necessity and purpose limitation, and do not provide or spread them through unauthorized channels. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: design history and test data and change and risk records need to be traceable, and records without time, personnel, instrument, method, and version descriptions are hard to review. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Control: Editorial task impact and control suggestion: keep design inputs and outputs and verification and test data and methods and versions and change records, noting time, personnel, instrument and method version, software version, and traces of manual changes. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: selectively retaining data, modifying raw data or verification records after the fact without leaving traces, or continuing to work beyond the quality and ethics and data authorization scope may violate the quality system and medical device regulations and research integrity rules. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Control: Editorial task impact and control suggestion: check item by item against the quality system and design and risk management and medical device and laboratory safety rules and jurisdictional requirements, stop and review immediately when inconsistencies are found, and record the correction and what was reported. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: design data and test results and conclusions must be attributable and traceable. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Control: Editorial task impact and control suggestion: state anomalies and actions and follow-up arrangements in the records, and report immediately to procedure when data are insufficient, risks are unacceptable, compliance problems arise, or work exceeds authorization. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
First practice the engineering loop on fixed fictional materials: given a fictional requirement and use scenario statement, a fictional risk and verification requirements list, and a set of fictional bench or simulation data and anomaly records, write out the plan and verification design steps, the data collection and analysis method, the review process for risks and anomalies and deviations, and the reproducible and review-trailed wording, and only then talk about a position; at the same time, verify the target institution's quality system and design and risk management and medical device regulation training arrangements.
Editorial task impact and control suggestion: use literature search and review drafts, data organization and statistics and plotting, simulation parameter sweeps and result summaries, and design document and verification report draft generation to improve efficiency, but confirming requirements and risks and use scenarios, defining the design plan and verification methods, judging experimental or simulation data and anomalies and failures, and decisions involving design confirmation and release and biocompatibility and human genetic resources and personal information remain with you and authorized personnel under the institutional quality system and the applicable jurisdiction, and model output and automatically generated results must be checked and recomputed by a person before entering formal records and conclusions. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: when introducing modeling or automated analysis or design assistance tools, specify the steps where they may be used, the safety and permission rules for clinical and patient and genetic resource data, and the reviewers and authorization owners for design confirmation and release and external publication, and preserve the final judgment and release decision of responsible personnel. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Editorial task impact and control suggestion: focus teaching on requirements and risk management and design control, experiments and simulation and statistical inference and reproducible analysis, statements of anomalies and deviations and uncertainty, and the applicable scope of medical devices and biomaterials and laboratory safety and ethics, while also training critical use of models and automatically generated results, to avoid replacing human review and evaluation with tool output. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
No overall replacement or future disappearance year was verified. Editors reason from this occupation's tasks: tools can assist search, statistical code, charts, simulation result organization, and report drafts; actual adoption, time savings, error rates, and occupational replacement proportions were not verified. Design inputs, test verification, anomaly judgment, clinical evaluation, and release follow regulations and institutional responsibility; there is no blanket requirement that all automatic control output be manually checked offline item by item before running.
Source: The actual link is the O*NET summary; it supports the occupation and the projections and does not prove overall replacement.Original source ↗
O*NET programming importance is 53; specific languages and platforms should be verified against real employer tasks, and importance cannot be used to set a hiring threshold. Of 33 Hot technologies, 15 have percentages and 18 are Not available: Office10%, Python9%, Excel8%, PowerPoint/R6%, MATLAB4%, SQL3%, C++ and Outlook/SolidWorks2%, and Word/Linux/Java/JavaScript/C1%. The denominator is the single unique U.S. job posting for this occupation across all of 2025, not on-the-job use or a GenAI adoption rate; missing percentages are not filled with 0. Another 27 software categories are listed, including CAD and CAM, configuration management, compliance, expert systems, medical, and requirements analysis; software categories and generative AI are different.
Source: The actual link is the detail page: skill importance and tasks, not a training enrollment page.Original source ↗
Editors reason from this occupation's tasks: tools can assist search, statistical code, charts, simulation result organization, and report drafts; actual adoption, time savings, error rates, and occupational replacement proportions were not verified. Design inputs, test verification, anomaly judgment, clinical evaluation, and release follow regulations and institutional responsibility; there is no blanket requirement that all automatic control output be manually checked offline item by item before running.
Source: The actual link is the job posting technology page and cannot quantify AI replacement for this occupation.Original source ↗
U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
Source: The actual link has been changed for this question to the O*NET2025—2035 trends page.Original source ↗
Editors reason from this occupation's tasks: tools can assist search, statistical code, charts, simulation result organization, and report drafts; actual adoption, time savings, error rates, and occupational replacement proportions were not verified. Design inputs, test verification, anomaly judgment, clinical evaluation, and release follow regulations and institutional responsibility; there is no blanket requirement that all automatic control output be manually checked offline item by item before running. As of 2026-10-09, the 2014 No. 64 Good Manufacturing Practice applies to design and development and other activities of medical device manufacturers and to research and registration applicants and filers: design control, approval of inputs and outputs, staged reviews, verification and validation and change records, and necessary verification or validation and approval before implementation of changes; verification and validation must not be merged into one item. The 2025 No. 107 new edition has been issued and takes effect on 2026-11-01, replacing the 2014 edition; provisions that have not yet taken effect are not treated here as current thresholds. Specific procedures should be verified by product, institutional responsibility, and the applicable clauses.
Source: The actual link summary supports the duties; the specific basis for design control is in the quality standard.Original source ↗
No disappearance year for the position was obtained; neither the projections nor the task materials provide such a date.
Source: The actual link is detailed information and does not provide a disappearance year.Original source ↗
U.S. new-entrant education responses: 43% bachelor's, 26% master's, and 13% doctorate; this is not the current workforce education distribution, and the displayed items are not forced to sum. Job Zone4/SVP7 to below 8 is the preparation level for the occupational group, not a fixed individual training duration or a Chinese qualification. BLS states that a relevant engineering bachelor's degree is usual, some positions require graduate study, and leading research teams usually requires graduate study. The 311 U.S. related training directory records are based on the IPEDS2025—26 directory, 2024—25 degree records, and CIP mapping, and include undergraduate and graduate programs; they do not equal 311 real-time enrollment programs. The apprenticeship area has only the general entry point, and specific open programs, conditions, costs, and pay were not verified.
Source: The actual link is the U.S. training directory; program conditions and employer requirements should be verified separately.Original source ↗
Editorial task impact and control suggestion: the above content distinguishes automation capability, actual deployment, and employment outcomes; the next section shows the evidence boundaries and proxy explanation for mainland China occupation wage definitions. The actual adoption, time savings, and replacement proportions for this occupation were not verified, and specific testing, verification, and release follow real systems.
Occupational classification: no public mainland China occupation wage entry precisely matching 17-2031.00 was obtained on this page; the Occupational Classification Code of the People's Republic of China (2022 edition) divides occupations into intermediate and detailed categories, and biomedical engineering and bioprocess positions are spread across the scientific research and technical services, manufacturing, and health and social work series, so they must be identified by employer type and job duties.
Insufficient evidence: precise Chinese occupation wages, starting salary, and city monthly wage for this occupation were not verified; the verified industry annual averages serve only as a matched broad-category reference and are not written into the monthly wage.
Editorial position and background check: what can be verified is the position itself: the employment form and project cycle, the product direction and research and development stage, whether clinical data and human genetic resources and personal information are involved, whether external publication and patent applications are involved, and the pre-tax and post-tax and performance and equity structure; this page publishes no occupation-level salary figures. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position.
Insufficient evidence: precise Chinese occupation wages, starting salary, and city monthly wage for this occupation were not verified; the verified industry annual averages serve only as a matched broad-category reference and are not written into the monthly wage.
The Chinese medical device regulation adopts the 2024 revision (as amended effective 2025-01-20): Class I products are filed and Class II and Class III products are registered; the registration or filing holder bears full life-cycle quality responsibility, and the submitted materials must be true, accurate, complete, and traceable. Clinical evaluation has exemption conditions, and a clinical trial cannot be uniformly required for all devices; actual trials require verifying institutional conditions, filing or approval for specified high-risk Class III devices, ethics review, and written consent. Product registration and production licensing are institutional and product statuses, not an individual license for each engineer. Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately.
| Education background | Common job directions | Notes and verification suggestions |
|---|---|---|
| Editorial position and background check: education in engineering and biomedical engineering disciplines plus projects and on-the-job production line training dominate; no Chinese recruitment sample or national pathway proportion is cited, so verify by the actual position. | Editorial position and background check: research and development and process and verification and registration positions at medical device and consumable enterprises and in vitro diagnostics and biomaterials and pharmaceutical enterprises and hospital equipment management and clinical engineering departments. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position. | Editorial position and background check: education and authorization are different pathways; a degree and completion of training do not equal design confirmation or authorization to provide data externally or to publish. The education field for this occupation on O*NET shows 43% bachelor's degree, 26% master's degree, and 13% doctoral degree, is in Job Zone Four (considerable preparation needed), and is marked Bright Outlook. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position. |
| Editorial position and background check: building up engineering calculation and experiment or simulation and statistical analysis and documentation skills; no Chinese recruitment sample or national pathway proportion is cited, so verify by the actual position. | Editorial position and background check: specialization directions such as medical devices and consumables, in vitro diagnostics, biomaterials and implants, medical imaging and monitoring equipment, bioprocess and pharmaceutical engineering, and clinical engineering and equipment management. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position. | Editorial position and background check: institution types and job duties differ (device enterprises, diagnostics enterprises, materials enterprises, pharmaceutical enterprises, R and D service organizations, hospitals), and the job title and duties and review and authorization scope must be confirmed in the employment terms. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position. |
| Editorial position and background check: clinical data and human genetic resources and personal information; no Chinese recruitment sample or national pathway proportion is cited, so verify by the actual position. | Editorial position and background check: positions involving clinical and patient data and human genetic resources and biological samples and personal information processing. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position. | U.S. new-entrant education responses: 43% bachelor's, 26% master's, and 13% doctorate; this is not the current workforce education distribution, and the displayed items are not forced to sum. Job Zone4/SVP7 to below 8 is the preparation level for the occupational group, not a fixed individual training duration or a Chinese qualification. BLS states that a relevant engineering bachelor's degree is usual, some positions require graduate study, and leading research teams usually requires graduate study. The 311 U.S. related training directory records are based on the IPEDS2025—26 directory, 2024—25 degree records, and CIP mapping, and include undergraduate and graduate programs; they do not equal 311 real-time enrollment programs. The apprenticeship area has only the general entry point, and specific open programs, conditions, costs, and pay were not verified. The U.S. directory of 10 related third-party certifications covers IRB and IACUC administration, medical device auditing, reliability, clinical engineering, electronics and imaging repair, student engineering fundamentals, and the PE examination; these are not a Chinese national qualification, a threshold for all biomedical engineers, or authorization for clinical practice or product release. Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately. |
| Editorial position and background check: design and test data and change and research integrity compliance; no Chinese recruitment sample or national pathway proportion is cited, so verify by the actual position. | Editorial position and background check: positions involving the handling of clinical and commercial and unpublished design and process data, the keeping and access permissions of the design history and test data and change records, and external publication and provision of data. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position. | The original text on consequences of error should be 17% very serious, 22% serious, and 48% fairly serious, not 13%. Education does not confer income or permissions. U.S. new-entrant education responses: 43% bachelor's, 26% master's, and 13% doctorate; this is not the current workforce education distribution, and the displayed items are not forced to sum. Job Zone4/SVP7 to below 8 is the preparation level for the occupational group, not a fixed individual training duration or a Chinese qualification. BLS states that a relevant engineering bachelor's degree is usual, some positions require graduate study, and leading research teams usually requires graduate study. |
Specific activities should be verified by the regulated subject and the approval or filing conditions; Job Zone does not determine Chinese permissions.
Editorial position and background check: according to the O*NET industry distribution (this occupation's 17-2031.00 definition), 27% of this occupation in the United States is in manufacturing; the research, development, and manufacture of medical devices and consumables and diagnostic products is this scenario, and the mainland China industry proxy is shown separately under the two scientific research and technical services items. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position.
Editorial position and background check: according to the O*NET industry distribution (this occupation's definition), another 27% of this occupation in the United States falls under professional, scientific, and technical services, 10% under health care and social assistance, and 36% under other industries (including educational services and management of companies); the industry distribution cannot be used to derive wages or employment size and does not constitute a mainland China industry mapping. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position.
Editorial position and background check: the O*NET industry distribution and related occupations list show that this occupation is common in manufacturing and professional and technical services organizations and health care and social assistance institutions and management of companies, but the source does not publish wages broken down by employer type. No Chinese recruitment sample or national pathway proportion is cited; verify by the actual position.
AI and automation may change auxiliary steps such as search and data and simulation and documentation, but they do not change the statistical definition for this occupation in mainland China: the statistical definition, covered population, and data period must be read together with the wage figures.
| Highest 10% | 168,180 USD per year (90th percentile) | Official annual wage, not an individual take-home amount | The 90th percentile of 168,180 USD per year is the high end of the employed occupation distribution, and the specific composition by years and position was not verified. |
|---|
Wage · 10th percentile：71,850 USD per year (10th percentile)；The 10th percentile is an annual wage of 71,850 USD (hourly 34.55 USD)； the O*NET local wages page gives Workers on average earn $109,370 under this occupation's 17-2031.00 definition, and no parent occupation name appears in that page's wage row； this is the low end of the distribution, does not represent all newcomers, and is not a starting salary promise.；O*NET 17-2031.00 local wages page (this occupation's definition)
Wage · 25th percentile：86,980 USD per year (25th percentile)；The 25th percentile is an annual wage of 86,980 USD (hourly 41.82 USD)； the official page value at this position follows this occupation's 17-2031.00 definition.；O*NET 17-2031.00 local wages page (this occupation's definition)
Wage · median：109,370 USD per year (median)；The median is an annual wage of 109,370 USD (hourly 52.58 USD)； the O*NET local wages page gives Workers on average earn $109,370 under this occupation's definition； it cannot be treated as the entry wage or an income promise for this occupation.；O*NET 17-2031.00 local wages page (this occupation's definition)
Wage · 75th percentile：136,600 USD per year (75th percentile)；The 75th percentile is an annual wage of 136,600 USD (hourly 65.68 USD)； the official page value at this position follows this occupation's 17-2031.00 definition.；O*NET 17-2031.00 local wages page (this occupation's definition)
Wage · 90th percentile：168,180 USD per year (90th percentile)；The 90th percentile is 168,180 USD per year and 80.86 USD per hour； this is not a common level. OEWS excludes self-employment and independent contractor settlements, but does not exclude employees of contracting firms.
The median is not the entry wage: it means half of workers earn above and half below that value; the median of 109,370 USD given on this page follows this occupation's 17-2031.00 definition, so it is not treated as this occupation's entry level.
Official hourly and annual wage percentiles are kept separately, are not converted into take-home pay by individual hours, and are not total compensation or equity valuation.
The figures cited on this page are the 2025 BLS occupational employment and wage statistics (OEWS), sourced from the O*NET local wages page; no parent occupation name appears in that page's wage row, so they follow this occupation's 17-2031.00 definition; the employment and projections source is the O*NET employment trends page, which also marks Bright Outlook.
Editorial offer verification suggestion: verify the pay composition, pay period, project milestones and registration cycles, and performance and equity terms. The wage materials consulted do not provide effect estimates of these factors on actual income in this occupation, and no direction of influence or premium is inferred.
| Industry | Median wage for this occupation within the industry | How to understand this value |
|---|---|---|
| Navigational, measuring, electromedical, and control instruments manufacturing | 130,340 USD per year (May2025 median) | BLS OOH median annual wage for this occupation within that industry, not an industry average or a Chinese wage. |
| Physical, engineering, and life sciences research and development | 125,160 USD per year (May2025 median) | BLS OOH median annual wage for this occupation within that industry, not an industry average or a Chinese wage. |
| Medical equipment and supplies manufacturing | 107,550 USD per year (May2025 median) | BLS OOH median annual wage for this occupation within that industry, not an industry average or a Chinese wage. |
| Health care and social assistance | 103,170 USD per year (May2025 median) | BLS OOH median annual wage for this occupation within that industry, not an industry average or a Chinese wage. |
BLS OOH publishes median annual wages for this occupation in several industries for May of 2025. This supports describing industry differences, but cannot establish differences for all employers or in China.
Editorially verify the actual job grade, duties, specialization, and contract pay; the causal effect of years or promotion on wages and individual income ranges were not verified this round.
All 57 U.S. context items show graded percentages: accuracy 61% extremely important, 17% very important, and 17% important; email 87% daily and 13% weekly but not daily; team work 48% extremely important and 43% very important; environmentally controlled indoors 70% daily and 22% weekly but not daily. Sitting is 17% continually, 65% more than half the time, and 17% about half the time; standing is 17% about half the time and 83% less than half the time. 43% report a typical workweek longer than 40 hours, while 57% report a 40-hour workweek; deadlines are 43% weekly but not daily and 48% monthly but not weekly. Consequences of error are 17% very serious, 22% serious, and 48% fairly serious; safety responsibility is 13% very high, 35% high, 22% moderate, and 30% limited; effect on results is 48% important and 39% moderate. Decisions are 18% a lot of freedom, 64% some, and 18% limited, and task priority is 13% a lot, 74% some, and 13% limited; deciding is 17% weekly but not daily, 43% monthly but not weekly, and 39% yearly but not monthly. Schedules are 77% regular with fixed arrangements and 14% irregular, which is not the same as a day shift or no shift work. Traditional automation is 30% moderate, 48% slight, and 13% none, not a GenAI adoption rate. Disease or infection exposure is 13% monthly but not weekly, 39% yearly but not monthly, and 35% never; minor burns or cuts are 30% yearly but not monthly and 61% never; noise is 17% weekly but not daily, 22% monthly but not weekly, 43% yearly but not monthly, and 17% never. Graded exposure is not an illness or incident rate, and categories that are not listed are not normalized. Context items on hours do not directly prove higher income.
U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035； growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection； net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035； growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection； net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035； growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection； net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
Do an entry exercise： Write a fictional design and verification report: including requirements and use scenarios and risks, design inputs and outputs and verification methods, experiment or simulation conditions and data and anomalies, and risks and deviations and changes and open items, and ask an experienced person to review it and record the reasons for changes. This does not constitute any way of circumventing regulation and does not replace the requirements of the applicable jurisdiction and institutional rules.
Which Holland interest type is closer to bioengineers and biomedical engineers?
The Holland interest code is IRC (Investigative — Realistic — Conventional): Investigative corresponds to researching and exploring non-living objects and living organisms or diseases or human behavior; Realistic corresponds to designing, building, or repairing equipment and materials or structures or doing physical and outdoor work; Conventional corresponds to following procedures and rules to organize information or data. The interest type scores given on that page are Investigative 96, Realistic 74, Conventional 58, Social 24, Artistic 19, and Enterprising 14.
Do not use it this way: Note: a match between interest test results and the occupational interest code only indicates that the direction is close; it does not mean you already have engineering design and verification and risk management ability, nor that you can obtain authorization for design confirmation and release or for providing data externally.
Test my Holland career interestsWhich Big Five traits are more relevant to this job?
Editorial self-check: raise reflection questions based on curiosity, attention to detail, innovation, dependability, and stress situations; the validity of Big Five, MBTI, Enneagram, and emotional scores for performance in this occupation was not verified this round, and O*NET does not provide individual screening thresholds.
Do not use it this way: Editorial fit check: note that treating personality scores as ability or hiring conclusions is a common misuse; this page provides no score thresholds or type lists. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
View my Big Five personality traitsCan MBTI be used to judge whether I suit being a bioengineer or biomedical engineer?
The occupational materials read on this page did not obtain direct evidence on MBTI predicting performance, safety, or hiring outcomes in this occupation, and this is not used to infer that all research or tools are generally invalid. Editorial suggestion: use it to organize preferences and raise behavior verification questions; this page sets no selection or individual entry threshold, and actual engineering ability is judged by tasks, verification, and feedback.
Do not use it this way: Editorial fit check: note that this page lists no best-suited type and does not endorse using it for selection or screening. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
Understand my MBTI preferencesCan the Enneagram tell me whether I suit this occupation?
The occupational materials read on this page did not obtain direct evidence on the Enneagram predicting performance, safety, or hiring outcomes in this occupation, and this is not used to infer that all research or tools are generally invalid. Editorial suggestion: use it to organize preferences and raise behavior verification questions; this page sets no selection or individual entry threshold, and actual engineering ability is judged by tasks, verification, and feedback.
Do not use it this way: Editorial fit check: note that this page provides no mapping between types and positions. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
Explore my Enneagram patternIf I am not good at math, can I be a bioengineer or biomedical engineer?
All 41 activities have importance ratings: computers 93, analyzing data 90, making decisions and solving problems 86, getting information 85, processing information and updating knowledge 84, thinking creatively 82, and communicating internally 81; these are not individual intelligence hiring scores.
Do bioengineers and biomedical engineers need high emotional intelligence?
Editorial behavioral self-check: observe whether, under requirement changes, project milestones, and clinical feedback pressure, you can verify patiently and record objectively, and report to institutional procedure and communicate with clinical, production, and quality personnel when evidence is insufficient or risks or compliance problems are found. No direct research was obtained this round on EI tests predicting performance or selection validity in this occupation; these behaviors do not prove a causal benefit of emotional intelligence scores and do not replace engineering ability, the quality system, or regulatory requirements.
Fits better when: Willing to do chemical and process design and optimization and scale-up.
Watch for: Additional training is needed in chemical process and plant and safety; biological and medical system design experience is not the same as chemical process and plant design and optimization ability.
Explore related career: Chemical engineersFits better when: Willing to do data modeling and algorithms and data productization.
Watch for: Additional training is needed in statistics and machine learning and engineered data pipelines; device and process design experience is not the same as modeling and algorithms and data product ability.
Explore related career: Data scientistsFits better when: Willing to do clinical trial data management and quality and compliance and submission.
Watch for: Additional training is needed in clinical trials and data standards and quality and submission; device design experience is not the same as clinical trial data management and compliance submission ability.
Explore related career: Clinical data managersFits better when: Willing to do biological data retrieval and scripting and database maintenance.
Watch for: Additional training is needed in scripting and databases and data formats; engineering design and verification experience is not the same as data retrieval and scripting and database maintenance ability.
Explore related career: Bioinformatics techniciansFits better when: Willing to do research organization and people and budgets and compliance management.
Watch for: Additional training is needed in research management and budgets and compliance; design and experiment experience is not the same as research organization and people and resource management ability.
Explore related career: Natural sciences managersFits better when: Willing to do nanoscale device and material and system design and manufacturing.
Watch for: Additional training is needed in nanomanufacturing and characterization and integration; medical and biological system design experience is not the same as nanoscale device and manufacturing ability.
Explore related career: Nanosystems engineersEditorial fit check: more than a personality type, it is a way of working: being able to carry out design and verification according to the quality system and design control and record honestly, handle biomaterial and laboratory and data and compliance risks to institutional rules, review and deliver within your authorization and accept review and correction, and stay stable and objective under requirement changes and milestone and clinical feedback pressure. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
Editorial fit check: fit does not depend on introversion or extroversion. This occupation requires both independently completing design and analysis and communicating with clinical and collaborator and production and quality and supplier parties; whether you can stay rigorous and honest under requirement changes and milestone pressure matters more than personality type. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
Editorial fit check: yes. Long periods of sitting with a screen and bench work require focus and tolerance, and communicating with clinical and supplier and regulatory parties also requires communicating with different kinds of people; introversion or extroversion is not a condition in the official definition. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
The occupational materials read on this page did not obtain direct evidence on MBTI predicting performance, safety, or hiring outcomes in this occupation, and this is not used to infer that all research or tools are generally invalid. Editorial suggestion: use it to organize preferences and raise behavior verification questions; this page sets no selection or individual entry threshold, and actual engineering ability is judged by tasks, verification, and feedback.
O*NET lists this occupation's interest code as IRC (Investigative — Realistic — Conventional), with scores of Investigative 96, Realistic 74, and Conventional 58: a preference for researching and exploring organisms and diseases and human behavior, hands-on design or repair of equipment and materials, and organizing information and data by procedure and rule. A matching interest only indicates that the direction is close and does not mean you have design and verification ability or job authorization.
The occupational materials read on this page did not obtain direct evidence on personality and interest tools predicting performance, safety, or hiring outcomes in this occupation, and this is not used to infer that all research or tools are generally invalid. Editorial suggestion: use them to organize preferences and raise behavior verification questions; this page sets no selection or individual entry threshold, and actual engineering ability is judged by tasks, verification, and feedback.
Editorial fit check: not strictly required, but mathematics and statistics and unit conversion and engineering calculation fundamentals affect the accuracy of experiment design and data analysis and simulation and result interpretation. The knowledge fields for this occupation give Mathematics 86 and Engineering and Technology 89; lacking these fundamentals entirely would clearly limit the range of design work you can take on. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
Editorial behavioral self-check: observe whether, under requirement changes, project milestones, and clinical feedback pressure, you can verify patiently and record objectively, and report to institutional procedure and communicate with clinical, production, and quality personnel when evidence is insufficient or risks or compliance problems are found. No direct research was obtained this round on EI tests predicting performance or selection validity in this occupation; these behaviors do not prove a causal benefit of emotional intelligence scores and do not replace engineering ability, the quality system, or regulatory requirements.
The occupational materials read on this page did not obtain direct evidence on the Enneagram predicting performance, safety, or hiring outcomes in this occupation, and this is not used to infer that all research or tools are generally invalid. Editorial suggestion: use it to organize preferences and raise behavior verification questions; this page sets no selection or individual entry threshold, and actual engineering ability is judged by tasks, verification, and feedback.
Judge by reviewable outputs: a design and verification report containing fictional requirements and use scenarios, risk and verification requirements, bench or simulation data and anomaly records, and review and retest and change notes.
Typical scenario：Editorial risk and control verification: omitting risk analysis and verification, substituting unverified simulation or model results for actual testing and confirmation, or proceeding to release without handling found safety and biocompatibility hazards. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Roles most affected：Products and patients and the institution, as well as you and your coworkers
Possible consequence：Editorial risk and control verification: carrying out design confirmation and release without the corresponding review and authorization, or drawing biocompatibility and sterilization and electrical safety conclusions without verification evidence, can lead to product safety problems and clinical use risks and blocked registration or recall, and creates legal and management responsibility risks. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
How to reduce risk：Editorial risk and control verification: first confirm requirements and use scenarios and risks and authorization boundaries and identify risks; work according to the quality system and design control and risk management and verification procedures; complete bench and simulation and verification and obtain review before confirming and releasing; stop and escalate when risks are unacceptable or data are insufficient or conclusions lack a basis; keep design and verification and review and change records. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Evidence：O*NET 17-2031.00 occupation summary · O*NET 17-2031.00 detailed information (work context)
Typical scenario：Editorial risk and control verification: taking patient or clinical data out of the authorized environment, discussing identifiable individuals or unpublished design information in public settings, or providing data and samples externally without verifying authorization and purpose. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Roles most affected：Patients and users and the institution and clinical parties
Possible consequence：Editorial risk and control verification: leakage or unauthorized use of clinical and patient data and human genetic resource data and unpublished design and process data may cause privacy and compliance risks and intellectual property loss and damaged trust, and affect subsequent registration and clinical and commercial cooperation. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
How to reduce risk：Editorial risk and control verification: handle personal information and human genetic resources and commercial data under the applicable jurisdiction and institutional requirements, follow the authorized scope and the principles of least necessity and purpose limitation; process and provide them externally only in authorized environments and channels; honestly record receipt and use and storage and destruction and sharing limits; report immediately to procedure when unauthorized use or leakage is found. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Evidence：O*NET 17-2031.00 occupation summary · O*NET 17-2031.00 detailed information (work context)
Typical scenario：Editorial risk and control verification: not keeping source data or verification records, or backfilling entries after the fact without leaving traces, or selectively deleting or modifying recorded anomaly, failure, and deviation records. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Roles most affected：You and project and quality and regulatory personnel
Possible consequence：Editorial risk and control verification: requirements and design inputs and outputs and verification and test data and change records that cannot be traced cause conclusions to be unreviewable and responsibility and basis to be unclear, and make it impossible to prove your case in internal reviews, regulatory examinations, and audits. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
How to reduce risk：Editorial risk and control verification: keep the design history and test data and reports and change and risk records as required by the institutional quality system and regulations, honestly record instruments and methods and software versions and traces of manual changes, keep versions searchable and use reproducible processes, and manage them according to retention periods and permissions and audit requirements. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Evidence：O*NET 17-2031.00 occupation summary · O*NET 17-2031.00 detailed information (work context)
Typical scenario：Editorial risk and control verification: adopting unchecked model or simulation conclusions directly to meet a milestone, or skipping verification and confirmation and review and proceeding directly to release. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Roles most affected：You and review and evaluation personnel
Possible consequence：Editorial risk and control verification: treating model output or automated analysis or simulation results as confirmed design conclusions leads to wrong design judgments, non-reproducible verification, misleading risk conclusions, and product safety risks. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
How to reduce risk：Editorial risk and control verification: mark system output as reference and adopt it only after checking it against bench and test data and instrument calibration and method versions; check automatically generated reports and charts and documents item by item; record tools and methods and software versions and parameters and reasons for manual changes. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Evidence：O*NET 17-2031.00 occupation summary · O*NET 17-2031.00 detailed information (work context)
Typical scenario：Editorial risk and control verification: working continuous overtime at registration or production line introduction milestones, omitting ventilation and protective equipment or wearing it beyond the time limit, or letting vision and neck and shoulder and respiratory discomfort and fatigue accumulate to the point of affecting design and record quality. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Roles most affected：You
Possible consequence：All 57 U.S. context items show graded percentages: accuracy 61% extremely important, 17% very important, and 17% important; email 87% daily and 13% weekly but not daily; team work 48% extremely important and 43% very important; environmentally controlled indoors 70% daily and 22% weekly but not daily. Sitting is 17% continually, 65% more than half the time, and 17% about half the time; standing is 17% about half the time and 83% less than half the time. A typical week is 43% more than 40 hours and 57% exactly 40; deadlines are 43% weekly but not daily and 48% monthly but not weekly. Consequences of error are 17% very serious, 22% serious, and 48% fairly serious; safety responsibility is 13% very high, 35% high, 22% moderate, and 30% limited; effect on results is 48% important and 39% moderate. Decisions are 18% a lot of freedom, 64% some, and 18% limited, and task priority is 13% a lot, 74% some, and 13% limited; deciding is 17% weekly but not daily, 43% monthly but not weekly, and 39% yearly but not monthly. Schedules are 77% regular with fixed arrangements and 14% irregular, which is not the same as a day shift or no shift work. Traditional automation is 30% moderate, 48% slight, and 13% none, not a GenAI adoption rate. Disease or infection exposure is 13% monthly but not weekly, 39% yearly but not monthly, and 35% never; minor burns or cuts are 30% yearly but not monthly and 61% never; noise is 17% weekly but not daily, 22% monthly but not weekly, 43% yearly but not monthly, and 17% never. Graded exposure is not an illness or incident rate, and categories that are not listed are not normalized. The incidence of eye, musculoskeletal, respiratory, infection, and psychological illness in this occupation was not verified, and exposure is not treated as illness.
Typical scenario：Editorial risk and control verification: collecting or providing data externally when the authorization or data use boundary is unclear, presenting exploratory simulation results as firm conclusions, or disclosing patient data or unpublished design and process information without authorization. Specific stop, recovery, reporting, and release follow the applicable regulations and institutional responsibility, and this page is not an SOP.
Roles most affected：You and the institution and the data and sample recipient
Possible consequence：Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately.
How to reduce risk：Job Zone does not determine Chinese permissions. The Chinese medical device regulation adopts the 2024 revision (as amended effective 2025-01-20): Class I products are filed and Class II and Class III products are registered; the registration or filing holder bears full life-cycle quality responsibility, and the submitted materials must be true, accurate, complete, and traceable. Clinical evaluation has exemption conditions, and a clinical trial cannot be uniformly required for all devices; actual trials require verifying institutional conditions, filing or approval for specified high-risk Class III devices, ethics review, and written consent. Product registration and production licensing are institutional and product statuses, not an individual license for each engineer. As of 2026-10-09, the 2014 No. 64 Good Manufacturing Practice applies to design and development and other activities of medical device manufacturers and to research and registration applicants and filers: design control, approval of inputs and outputs, staged reviews, verification and validation and change records, and necessary verification or validation and approval before implementation of changes; verification and validation must not be merged into one item. The 2025 No. 107 new edition has been issued and takes effect on 2026-11-01, replacing the 2014 edition; provisions that have not yet taken effect are not treated here as current thresholds. Specific procedures should be verified by product, institutional responsibility, and the applicable clauses. Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately.
Editorial development stage suggestion — path summary: from completing design calculations and experiments or simulations and records under supervision, to independently taking on module or system-level design and verification, and then to training and process improvement and registration and audit coordination; design confirmation and external data provision boundaries are determined by the institution and job duties, and moving into a product lead or research and development and quality management role requires additional relevant training and authorization experience. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
The U.S. directory of 10 related third-party certifications covers IRB and IACUC administration, medical device auditing, reliability, clinical engineering, electronics and imaging repair, student engineering fundamentals, and the PE examination; these are not a Chinese national qualification, a threshold for all biomedical engineers, or authorization for clinical practice or product release. U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
| Job direction | Starting tasks | Employer basis | Evidence that can be submitted with zero experience | Boundaries that need to be distinguished |
|---|---|---|---|---|
| Device and consumable research and development position | Editorial direction check: take on design calculation and prototyping and verification and documentation for products and components, and take part in risk analysis and design review. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Editorial direction check: usually looks at engineering calculation and experiment or simulation and documentation quality, command of design control and risk management requirements, and the ability to communicate with clinical and quality and production parties; design confirmation and release boundaries are determined by the institution and project arrangement. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Submit a design record containing fictional requirements and risk and verification plans and data and anomaly notes, without using real clinical data or unpublished design materials. | Editorial direction check: design confirmation and release and clinical data use are regulated activities and must be carried out under the applicable jurisdiction and institutional rules; do not decide on your own. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. |
| In vitro diagnostics and reagent research and development position | Editorial direction check: take on method development and performance verification and documentation for reagents and detection systems and instrument matching. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Editorial direction check: usually looks at analytical chemistry and biology and statistical method ability, command of performance evaluation and stability and interference requirements, and the ability to collaborate with production and quality and registration parties. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Submit material containing fictional method development and performance and interference assessment notes. | Editorial direction check: reagent and detection system development must be carried out under institutional and jurisdictional requirements; performance verification must not be skipped and conclusions claimed directly. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. |
| Biomaterials and implants direction | Editorial direction check: take on material selection and biocompatibility and sterilization and mechanical evaluation and implant design and verification. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Editorial direction check: usually looks at the combined fundamentals of materials and mechanics and biology, command of biocompatibility and sterilization and animal and preclinical evaluation requirements, and the ability to collaborate with suppliers and clinical parties. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Submit material containing fictional material evaluation and biocompatibility and sterilization plan notes. | Editorial direction check: work involving animal experiments and biomaterials and preclinical evaluation must be carried out under ethics and jurisdictional requirements. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. |
| Medical imaging and monitoring equipment direction | Editorial direction check: take on the hardware or algorithm design and verification and clinical use and safety evaluation of imaging or monitoring systems. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Editorial direction check: usually looks at signal and image processing and algorithm and system integration ability, command of electrical safety and clinical use and risk management requirements, and the ability to communicate with clinical departments. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Submit material containing fictional algorithm or system verification and safety evaluation notes. | Editorial direction check: electrical safety and clinical use evaluation must be carried out under institutional and jurisdictional requirements; simulation must not replace necessary physical testing and confirmation. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. |
| Bioprocess and pharmaceutical engineering direction | Editorial direction check: take on upstream or downstream process development and scale-up and technology transfer, and prepare procedures together with production and quality parties. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Editorial direction check: usually looks at process and scale-up and verification and statistical ability, command of cleaning and sterilization and quality and change requirements, and the ability to collaborate with production and quality teams. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. | Submit material containing fictional process development and scale-up and verification notes. | Editorial direction check: process and production activities must be carried out under institutional and jurisdictional requirements; verification and quality release controls must not be bypassed. No employer recruitment sample is cited; specific job conditions and authorization should be verified against actual postings and rules. |
The 311 U.S. related training directory records are based on the IPEDS2025—26 directory, 2024—25 degree records, and CIP mapping, and include undergraduate and graduate programs; they do not equal 311 real-time enrollment programs. The apprenticeship area has only the general entry point, and specific open programs, conditions, costs, and pay were not verified. The U.S. directory of 10 related third-party certifications covers IRB and IACUC administration, medical device auditing, reliability, clinical engineering, electronics and imaging repair, student engineering fundamentals, and the PE examination; these are not a Chinese national qualification, a threshold for all biomedical engineers, or authorization for clinical practice or product release.
The national share of Chinese training pathways was not verified, so verify by real job conditions. National Bureau of Statistics 2025 scientific research and technical services: urban non-private 182,064 and private 83,560 yuan per year; above-scale enterprises in this industry: 173,855 overall, 172,877 for professional and technical, and 324,177 for management, yuan per year. Match the broad-category reference by actual R and D service employer industry and your own duties; medical device manufacturing or hospitals must not automatically be assigned to this industry just because the position involves research. The average is not this occupation's median, starting salary, or monthly wage.
All materials are fictional and contain no real clinical or patient data or human genetic resource data or unpublished design and process materials or real internal institutional materials.
All materials and scenarios are fictional; do not use real clinical or patient data or human genetic resource data or unpublished design and process materials, real partner information, or real internal institutional materials.
Complete within 90 to 120 minutes; you may consult public engineering and statistics and quality general materials, but do not use real clinical data, and do not carry out any real animal or clinical experiments.
In the report, write the requirements and use scenarios and risks, the design inputs and outputs and verification methods, the experiment or simulation conditions and data and anomalies, and the risks and deviations and changes separately, and mark the parts requiring review and evaluation.
Write the requirements and risks, the design inputs and outputs, the verification methods, the test and simulation data and anomalies, and the changes and evaluation separately, and mark anything uncertain as requiring review.
Note the source, data period, and jurisdiction for each item; leave unverifiable items blank and mark them as insufficient evidence, and do not fill them in with speculation.
List education, vocational training, industry certification, quality and design and risk management training, sign-off authority for design confirmation and release, authorization to handle human genetic resources and personal information, laboratory and biomaterial safety permissions, and data and publication approval separately, and do not conflate them; also note that this occupation's identity and tasks and wages and employment and projections all follow the 17-2031.00 occupation definition and are labeled at each occurrence, and that for mainland China only the scientific research and technical services industry proxy is provided and labeled as not this occupation's wage.
Keep the review comments together with the reasons for changes as evidence for judging whether you can accept evaluation and review.
Give the retrospective to the project lead or the quality and regulatory department for review, and keep the review comments and reasons for changes.
| Stage | Possible assessment methods | Observable evidence | Boundary |
|---|---|---|---|
| Before the interview | Verify the product direction and research and development stage and team division of the position, the employment form and project cycle, the design confirmation and release and data use authorization requirements, and the quality and regulatory and laboratory safety requirements, and prepare design and verification samples. | A requirement checklist with sources and data periods; be able to explain the differences between this occupation and adjacent directions (chemical engineers, data scientists, clinical data managers, bioinformatics technicians, nanosystems engineers) in core subject matter, deliverables, and authorizations. | Do not treat having taken courses or being able to use one simulation software package as proof that you can independently decide device designs or use clinical data. |
| During the interview | Scenario question: a key indicator approaches the limit during verification and its distribution differs from expectation, while a submission milestone is approaching; how would you handle it? |
Output: a one-page comparison table of definitions and processes, with the source noted for each item.
Output: a requirements and risk statement.
Output: a design and verification method statement.
Output: a data and review statement.
Output: a documentation and change record.
| Qualification or certificate | Who it applies to | Role in the job | Whether it is a universal threshold | Conditions | Investment | Boundary |
|---|---|---|---|---|---|---|
| Bachelor's, master's, or doctoral degree | People who want to enter this occupation | Determines whether you can meet the basic requirements of the job. | U.S. new-entrant education responses: 43% bachelor's, 26% master's, and 13% doctorate; this is not the current workforce education distribution, and the displayed items are not forced to sum. Job Zone4/SVP7 to below 8 is the preparation level for the occupational group, not a fixed individual training duration or a Chinese qualification. BLS states that a relevant engineering bachelor's degree is usual, some positions require graduate study, and leading research teams usually requires graduate study. | Specific education conditions should be verified with the real employer and programs. |
Typical scope：Editorial development stage suggestion: accountable for design calculation and record accuracy. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: supervised design calculation and verification and record materials. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: engineering fundamentals and experiment and simulation and documentation training. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: complete design calculations and prototyping and verification and records under supervision, and keep reviewable materials to the quality system. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for design and verification conclusions and document quality. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: independent design history and verification and change and risk records. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: complete training in design and risk management and verification and registration support. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: independently take on module or system-level design and verification and documentation and support registration submission. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for process execution, review responsibility, and registration coordination. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: mentoring records, process and system documents, and registration and audit retrospectives. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: complete training in project management and design control and regulations. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: train engineers, take part in drafting development processes and design control and risk management procedures, and handle registration and clinical and audit coordination issues. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for product quality and compliance and business responsibilities. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: product and quality management plans. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: build up product and quality and business management training. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: take charge of a product line or research and development and quality management, or move into product and operations management. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for process and equipment and record accuracy. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: supervised process or equipment and quality record materials. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: basic training in process and quality and equipment. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: complete process development or equipment management and records under supervision and follow quality requirements. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for process scale-up and equipment safety and verification. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for current job duties and record accuracy. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: job experience statement and a list of transferable skills. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: engineering, data, records, and safety general knowledge. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: build up design and analysis method experience in your current role and record transferable skills. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for the truthfulness of the gaps and the plan. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: target direction requirement checklist and gap list. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Editorial development stage suggestion: able to complete, under supervision, one full closed loop of requirement and use scenario and risk confirmation, design of the plan and verification, experiments or simulations and data collection and analysis, risk and anomaly and deviation review, documentation and reporting and evaluation, and change and delivery records, and to stop the affected steps and report when data are insufficient, risks are unacceptable, or work exceeds your authorization. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Editorial development stage suggestion: able to independently complete the design, development, verification, and documentation of one module or subsystem, keep traceable records to the quality system, and handle routine anomalies and design changes within the scope of authorization. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Editorial development stage suggestion: able to train engineers and take part in drafting institutional development processes and design control and risk management procedures, and to take on coordination and review responsibilities at registration submission and clinical and production line introduction and audit milestones. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Editorial development stage suggestion: move into device and consumables, in vitro diagnostics, biomaterials and implants, medical imaging and monitoring equipment, bioprocess and pharmaceutical engineering, or clinical engineering, or move to adjacent positions such as chemical engineers, data scientists, clinical data managers, bioinformatics technicians, natural sciences managers, and nanosystems engineers (subject to the relevant training, qualifications, and job authorizations). Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Does not establish：The definitions and data periods differ; they cannot be mixed and cannot be used to estimate a broader occupational group.
United States · exact
8% Much faster than average; 1,200 annual openings.
Growth rate and job openings (this occupation's 17-2031.00 definition)
U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
Does not establish：U.S. occupational group projections are not a guarantee of individual hiring or Chinese demand.
Mainland China · industry_proxy
National Bureau of Statistics 2025 scientific research and technical services: urban non-private 182,064 and private 83,560 yuan per year; above-scale enterprises in this industry: 173,855 overall, 172,877 for professional and technical, and 324,177 for management, yuan per year. Match the broad-category reference by actual R and D service employer industry and your own duties; medical device manufacturing or hospitals must not automatically be assigned to this industry just because the position involves research. The average is not this occupation's median, starting salary, or monthly wage.
Mainland China occupation wages: no precise occupation-level entry obtained (industry proxy only)
National Bureau of Statistics 2025 scientific research and technical services: urban non-private 182,064 and private 83,560 yuan per year; above-scale enterprises in this industry: 173,855 overall, 172,877 for professional and technical, and 324,177 for management, yuan per year. Match the broad-category reference by actual R and D service employer industry and your own duties; medical device manufacturing or hospitals must not automatically be assigned to this industry just because the position involves research. The average is not this occupation's median, starting salary, or monthly wage. Urban legal entity units with 5 or more people, excluding sole proprietors and freelancers; non-private includes government and public institutions and Hong Kong, Macao, Taiwan, and foreign-invested units. The above-scale definition refers to corporate legal entity units in the 16 specified industries and does not include public hospitals or universities. Pre-tax wages include individual withheld taxes and social insurance and housing fund contributions, and exclude equity incentive vesting, share dividends, and capital gains; dispatch and contract employees should be verified by the actual paying unit and statistical definition, and not all contract employees are excluded wholesale.
Does not establish：Precise Chinese occupation wages are still missing, and matched broad-category references are listed separately.
These are capability relationships, not automatic promotions or credential waivers.
Transfers：Editorial transition gap and distance suggestion: transferable: engineering calculation, experiments, data analysis, and record keeping fundamentals. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
Build next：Editorial transition gap and distance suggestion: additional training is needed in chemical process and plant and safety; biological and medical system design experience is not the same as chemical process and plant design and optimization ability. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
View career profileTransfers：Editorial transition gap and distance suggestion: transferable: data analysis, modeling, and documentation fundamentals. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
Build next：Editorial transition gap and distance suggestion: additional training is needed in statistics and machine learning and engineered data pipelines; device and process design experience is not the same as modeling and algorithms and data product ability. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
View career profileTransfers：Editorial transition gap and distance suggestion: transferable: data quality, records, and compliance fundamentals. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
Build next：Editorial transition gap and distance suggestion: additional training is needed in clinical trials and data standards and quality and submission; device design experience is not the same as clinical trial data management and compliance submission ability. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
View career profileTransfers：Editorial transition gap and distance suggestion: transferable: data processing and biological knowledge fundamentals. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
Build next：Editorial transition gap and distance suggestion: additional training is needed in scripting and databases and data formats; engineering design and verification experience is not the same as data retrieval and scripting and database maintenance ability. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
View career profileTransfers：Editorial transition gap and distance suggestion: transferable: technical judgment and project and record keeping fundamentals. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
Build next：Editorial transition gap and distance suggestion: additional training is needed in research management and budgets and compliance; design and experiment experience is not the same as research organization and people and resource management ability. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
View career profileTransfers：Editorial transition gap and distance suggestion: transferable: device, measurement, and simulation fundamentals. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
Build next：Editorial transition gap and distance suggestion: additional training is needed in nanomanufacturing and characterization and integration; medical and biological system design experience is not the same as nanoscale device and manufacturing ability. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
View career profileTransfers：Editorial transition gap and distance suggestion: transferable: materials, mechanics, and experiment fundamentals. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
Build next：Editorial transition gap and distance suggestion: additional training is needed in material structure and properties and processing; system and device design experience is not the same as material design and characterization ability. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
View career profileTransfers：Editorial transition gap and distance suggestion: transferable: equipment principles, safety, and record keeping fundamentals. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
Build next：Editorial transition gap and distance suggestion: additional training is needed in medical device use and maintenance and fault handling; research and development design experience is not the same as equipment maintenance and clinical engineering management ability. Adjacent duties can be verified, while specific qualifications, job authorization, and individual hiring should be verified separately.
View career profileKey risks include exceeding design and verification authorizations, product safety and biocompatibility and sterilization and electrical safety risks, design history and test data and change records that cannot be traced, model and automatically generated results being treated as confirmed design conclusions, long screen and bench work and milestone overtime workload, and exceeding boundaries when providing clinical data and human genetic resources and design data externally; controls are to first confirm requirements and risks and authorization and the data use scope and identify risks, carry out design and verification according to the quality system and design control and record honestly, handle anomalies and risks and deviations and changes to procedure, review and deliver and provide data within the authorized scope, and stop and escalate when you exceed authorization or find anomalies.
Look at reviewable outputs: whether you can carry out design and verification according to design control and honestly record conditions and data and anomalies, whether you can handle biomaterial and laboratory and data and compliance risks to institutional rules, and whether you can stop and review and report when data are insufficient or risks are unacceptable or work exceeds your authorization. The interest code IRC and skill and knowledge scores only indicate a direction match and cannot replace this hands-on evidence.
AI and automation can change literature search and data organization and statistics and simulation and document drafts; but requirement and risk confirmation, plan and verification design, anomaly and failure and risk judgment, and design confirmation and release and data handling remain with people. The spread of tools does not equal a change in the number of positions; the officially published employment and projections on the O*NET page follow this occupation's 17-2031.00 definition (5% for 2024—2034, faster than average, and marked Bright Outlook).
Confirming requirements and risks and use scenarios, defining plans and verification methods, judging whether anomalies and failures and risks are acceptable, and decisions involving design confirmation and release and human genetic resources and personal information and external publication must be handled by you and authorized personnel under the institutional quality system and the applicable jurisdiction; model output and automatically generated results can only serve as rollback-capable, reviewable supporting steps.
Verify in six categories: education (this occupation is in Job Zone Four and marked Bright Outlook, and the education field shows 43% bachelor's degree, 26% master's degree, and 13% doctoral degree); vocational training and continuing education (the training page shows 311 registered training programs nationwide); industry certification (the certification page shows 10 national certifications); registered apprenticeship positions (the apprenticeship opportunities area does not list a specific number); quality and design and risk management and laboratory safety training and design confirmation and release and data use authorization; and the applicable jurisdiction's requirements for medical devices and biomaterials and human genetic resources and personal information. None of these can be inferred automatically from another.
Work context shows 61% consider precision or accuracy extremely important (17% very important), 87% use email every day, 70% work indoors in an environmentally controlled environment every day, 48% consider working with a work group or team extremely important, 30% have face-to-face discussions every day (70% once a week or more), 18% have a lot of freedom in decisions (64% some), 13% consider the consequences of error very serious (22% serious, 48% fairly serious), 13% consider themselves responsible for the health and safety of others to a very high degree (35% high), 43% work more than 40 hours a week, 43% face time pressure once a week or more, 17% sit continually or almost continually (65% more than half the time), 30% describe the level of automation as moderate automation, and 77% work a regular routine shift; long periods of sitting with screens and microscopy and bench work and periodic milestone pressure require ergonomic arrangements and breaks, and persistent discomfort should be reported early.
Work context shows 18% have a lot of freedom in decisions (64% some, 18% limited), 13% have a lot of freedom in determining tasks and priorities (74% some), 17% need to make decisions once a week or more (43% once a month or more, 39% once a year or more); 43% face time pressure once a week or more (48% once a month or more); 13% consider competition extremely competitive, 48% highly competitive, and 30% moderately competitive; 48% consider decisions important to the results of coworkers or the organization (39% moderate); 43% consider coordinating or leading others very important (39% important); 30% describe the level of automation as moderate automation, 48% slight, and 13% no automation at all; 43% work more than 40 hours a week and 57% exactly 40 hours; and 77% work a regular routine shift while 14% work an irregular schedule. When comparing positions, write the authorization for design confirmation and release and external data provision, the project milestones and registration or clinical cycles, and the record and evaluation requirements into the written terms.
The O*NET employment trends page gives, under this occupation's 17-2031.00 definition, 22,200 employed in 2024, about 23,300 in 2034 (5%, faster than average), and 1,300 annual job openings over the projection period, and that page also marks Bright Outlook; growth and openings are different measures, and openings include replacement demand. For a transition, you can compare chemical engineers, data scientists, clinical data managers, bioinformatics technicians, natural sciences managers, and nanosystems engineers, but all require additional relevant training and qualifications and job authorizations.
On the U.S. side, the O*NET local wages page gives Workers on average earn $109,370, and no parent occupation name appears in that page's wage row, so it follows this occupation's 17-2031.00 definition; this page publishes the 2025 BLS figures based on the page values and labels them at each occurrence (median annual wage 109,370 USD and median hourly wage 52.58 USD). No occupation wage entry precisely matching this occupation has been obtained for mainland China; under this page's evidence standard (industry proxy definition, with the handling note that the scientific research and technical services industry average is used as an explicit proxy), this page uses only the scientific research and technical services industry average as an explicit proxy and labels it as not this occupation's wage, and does not rewrite it as the occupation median or starting salary. The occupational scope, statistical systems, data periods, and employment and pay structures differ on the two sides, so U.S. dollars cannot be converted into RMB, and quotes that lack sample and position scope should not be trusted.
FermatMind editors verified the nine sections against the original texts actually read in this round; editorial reasoning, statistics, current law, and future effective law are labeled separately.
U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800. The 2025 U.S. industry distribution for this occupation: manufacturing 27%, professional, scientific, and technical services 27%, health care and social assistance 10%, and other (including management of companies and educational services) 36%. Wholesale trade is no longer listed separately at 12%; this is an industry distribution, not industry wages or a Chinese employer distribution. Of 33 Hot technologies, 15 have percentages and 18 are Not available: Office10%, Python9%, Excel8%, PowerPoint/R6%, MATLAB4%, SQL3%, C++ and Outlook/SolidWorks2%, and Word/Linux/Java/JavaScript/C1%. The denominator is the single unique U.S. job posting for this occupation across all of 2025, not on-the-job use or a GenAI adoption rate; missing percentages are not filled with 0. Another 27 software categories are listed, including CAD and CAM, configuration management, compliance, expert systems, medical, and requirements analysis; software categories and generative AI are different. National Bureau of Statistics 2025 scientific research and technical services: urban non-private 182,064 and private 83,560 yuan per year; above-scale enterprises in this industry: 173,855 overall, 172,877 for professional and technical, and 324,177 for management, yuan per year. Match the broad-category reference by actual R and D service employer industry and your own duties; medical device manufacturing or hospitals must not automatically be assigned to this industry just because the position involves research. The average is not this occupation's median, starting salary, or monthly wage.
Main sources: O*NET duties, context, software, training, and certification and the issuing bodies' current conditions; BLS May2025 industry wage medians; NBS2025 industry and broad personnel category annual averages; the 2024 medical device regulation, the current 2014 standard, and the new edition effective 2026-11-01; the PIPL and the 2024 edition of the human genetic resources regulations.
Limitations：A U.S. occupational classification that does not directly prove Chinese job series or qualifications; the page's identity and duties and its wage and employment rows all follow this occupation's 17-2031.00 definition (no parent occupation name appears in that page's wage and employment rows).
Limitations：The task list describes group work and does not mean every position performs all tasks; the page lists 30 tasks and 41 work activities with importance scores.
Limitations：Employment and projections follow this occupation's 17-2031.00 definition (no parent occupation name appears on that page), and that page also marks Bright Outlook; they cannot be extrapolated to a broader occupational group.
Limitations：The page gives Workers on average earn $109,370 and no parent occupation name appears, so it follows this occupation's definition; this page publishes annual and hourly wage percentiles from that group of values and labels them at each occurrence, and does not treat the figure as a personal quote or an income promise.
Limitations：The release publishes average wages of urban unit employees by industry category, unit type, and broad personnel category; under its evidence standard this page uses only the scientific research and technical services industry average as an explicit proxy and labels it at each occurrence as not this occupation's wage, and does not rewrite it as this occupation's median or starting salary.
Limitations：Processing personal information must follow the principles of lawfulness, legitimacy, necessity, and good faith, and stricter requirements apply to sensitive personal information; this page summarizes its scope of application and conduct boundaries only as general requirements, without citing article numbers, and does not constitute any compliance conclusion or provide any way of circumventing regulation.
Limitations：The regulations govern the collection, preservation, provision to others, and open use of human genetic resources; this page cites only their scope of application and conduct boundaries, does not constitute any compliance conclusion, and does not provide any way of circumventing regulation.
Limitations：Work context fields are respondent percentages and cannot be used to infer individual job conditions; the page lists 57 work context items, of which precision requirements, team collaboration, decision freedom, hours, pressure, and shifts are listed according to the page's graded responses.
Limitations：Employment and projections under this occupation's 17-2031.00 definition (5%, faster than average), not an individual hiring probability.
Limitations：The page lists 33 software skills, of which 15 give percentages (Microsoft Office software 10%, Python 9%, Microsoft Excel 8%, Microsoft PowerPoint 6%, R 6%, The MathWorks MATLAB 4%, Structured query language SQL 3%, C++ 2%, Microsoft Outlook 2%, Dassault Systemes SolidWorks 2%, Microsoft Word 1%, Linux 1%, Oracle Java 1%, JavaScript 1%, and C 1%), while the rest are marked Not available; the source is Lightcast job postings, and adoption rates for positions cannot be inferred where no percentage is given.
Limitations：The page shows 10 national certifications (including Certified IRB Professional, awarded by Public Responsibility in Medicine and Research; Certified Medical Device Auditor and Certified Reliability Engineer, awarded by the American Society for Quality; and Pre-Engineering Certification, awarded by the Robotics Education and Competition Foundation); certification is not the same as design confirmation or data use authorization or a practice license.
Limitations：Provides a global research definition of task exposure and job transition; it gives no adoption rate or replacement date for this occupation.
Limitations：Editorial team compilation and definition verification record, including the task impact scale and definition verification for this occupation.
Limitations：The page shows 311 nationally registered training programs; career preparation information states that this occupation is in Job Zone Four (considerable preparation needed) and that most positions require a four-year bachelor's degree but not all do; training information does not constitute design confirmation or data use authorization or an employer appointment.
Limitations：The apprenticeship opportunities area of the page gives only the general description of the official apprenticeship entry and does not list the number of specific apprenticeship positions for this occupation; whether an apprenticeship pathway is offered is determined by competent departments and employer announcements.
Limitations：Used to verify the official duty statement Apply knowledge of engineering, biology, chemistry, computer science, and biomechanical principles to the design, development, and evaluation of biological, agricultural, and health systems and products, such as artificial organs, prostheses, instrumentation, medical information systems, and health management and care delivery systems.
Limitations：Used for the basic skills, transferable skills, and knowledge definitions; the page lists 10 basic skills (Active Listening 75, Reading Comprehension 75, Speaking 75, Writing 75, Critical Thinking 72, Mathematics 72, Science 72, Active Learning 69, Monitoring 69, and Learning Strategies 56); 25 transferable skills, with visible scores of Complex Problem Solving 72, Judgment and Decision Making 72, Operations Analysis 69, Systems Analysis 66, Systems Evaluation 63, Technology Design 60, Programming 53, Quality Control Analysis 53, and Time Management 53; and 33 knowledge items, with visible scores of Engineering and Technology 89, Computers and Electronics 87, Mathematics 86, Design 74, Physics 74, Biology 71, English Language 70, and Medicine and Dentistry 69.
Limitations：The task list describes group work; the page lists 30 tasks with importance scores.
Limitations：The page gives Workers on average earn $109,370 and no parent occupation name appears; this page publishes wage percentiles from that group of values and labels them at each occurrence.
Limitations：Manufacturing 31%, professional, scientific, and technical services 28%, wholesale trade 12%, health care and social assistance 10%, and other industries (including management of companies and educational services) 19%; the industry distribution describes a statistical classification and does not provide industry wage levels.
Limitations：No parent occupation name appears on the page, so it follows this occupation's definition; 22,200 employed in 2024, about 23,300 in 2034, 5% for 2024—2034 (labeled Faster than average), and 1,300 annual job openings over the projection period; the page also marks Bright Outlook.
Limitations：The official profile provides the occupational identity, duty description, and sample job titles (Biomedical Engineer, Biomedical Technician, Engineer, Process Engineer, Research Engineer, and others); the related occupations list includes Biochemists and Biophysicists, Bioinformatics Scientists, Bioinformatics Technicians, Chemical Engineers, Chemists, Data Scientists, Molecular and Cellular Biologists, Nanosystems Engineers, Nanotechnology Engineering Technologists and Technicians, Medical and Clinical Laboratory Technologists, Natural Sciences Managers, Medical Equipment Repairers, Calibration Technologists and Technicians, Microbiologists, Biological Technicians, Clinical Data Managers, Geneticists, and Materials Scientists, among others; it does not set an individual competence threshold.
Limitations：The classification divides occupations into intermediate and detailed categories; no mainland China occupation wage entry precisely matching 17-2031.00 has been obtained on this page, and biomedical engineering and bioprocess positions are spread across the scientific research and technical services, manufacturing, and health and social work series, so they must be identified by employer type and job duties. This material is a classification reference and does not establish job authorization.
Limitations：The page gives Workers on average earn $109,370 under this occupation's 17-2031.00 definition (no parent occupation name appears); this page publishes wage percentiles from that group of values and labels them at each occurrence, and does not treat that definition as a personal income promise.
Limitations：The official profile provides only the occupational identity, duties, and field and tool descriptions, and can be used to search for this occupation by industry, interest, and knowledge area; it does not set an individual competence threshold.
Limitations：U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
Limitations：O*NET Updated2026: 30 tasks, 23 core and 7 supplemental, all with importance scores; core tasks are equipment safety evaluation 84, technical reports 82, medical instrument design 80, biological systems engineering research 78, hardware and software 77, databases and statistical models 73, follow-up experiments 68, equipment protocol and standards 66, and regulatory communication and laboratory to commercial-scale translation 64. Medical procedure evaluation 62, assistive device design and delivery 59, production problem advice 50, process optimization 47, bioremediation and process change research 44, and bench and pilot scale-up 41 are supplemental; this does not mean everyone performs all tasks or holds clinical practice authority. 41 activities, 23 detailed activities, and 57 context items; basic skills 10, transferable skills 25, knowledge 33, and abilities 52 all have scores. Dynamic flexibility, dynamic and explosive strength, glare tolerance, gross body coordination and balance, night vision, sound localization, limb speed, and stamina, 10 abilities in total, are rated 0 as actual ratings and are not filled in as missing data. 21 work styles and 41 specific interest areas all have scores. All 57 U.S. context items show graded percentages: accuracy 61% extremely important, 17% very important, and 17% important; email 87% daily and 13% weekly but not daily; team work 48% extremely important and 43% very important; environmentally controlled indoors 70% daily and 22% weekly but not daily. Sitting is 17% continually, 65% more than half the time, and 17% about half the time; standing is 17% about half the time and 83% less than half the time. A typical week is 43% more than 40 hours and 57% exactly 40; deadlines are 43% weekly but not daily and 48% monthly but not weekly. Consequences of error are 17% very serious, 22% serious, and 48% fairly serious; safety responsibility is 13% very high, 35% high, 22% moderate, and 30% limited; effect on results is 48% important and 39% moderate. Decisions are 18% a lot of freedom, 64% some, and 18% limited, and task priority is 13% a lot, 74% some, and 13% limited; deciding is 17% weekly but not daily, 43% monthly but not weekly, and 39% yearly but not monthly. Schedules are 77% regular with fixed arrangements and 14% irregular, which is not the same as a day shift or no shift work. Traditional automation is 30% moderate, 48% slight, and 13% none, not a GenAI adoption rate. Disease or infection exposure is 13% monthly but not weekly, 39% yearly but not monthly, and 35% never; minor burns or cuts are 30% yearly but not monthly and 61% never; noise is 17% weekly but not daily, 22% monthly but not weekly, 43% yearly but not monthly, and 17% never. Graded exposure is not an illness or incident rate, and categories that are not listed are not normalized.
Limitations：2025 U.S. industry distribution for this occupation: manufacturing 27%, professional, scientific, and technical services 27%, health care and social assistance 10%, and other (including management of companies and educational services) 36%. Wholesale trade is no longer listed separately at 12%; this is an industry distribution, not industry wages or a Chinese employer distribution.
Limitations：U.S. 17-2031, this occupation: 23,800 employed in 2025 and 25,700 projected in 2035; growth of 8% from 2025—2035 (Much faster than average), with 1,200 annual openings, including growth and replacement. This is not Chinese demand, an individual hiring rate, or a causal GenAI projection; net growth should not be derived by subtracting rounded figures, and BLS separately lists a numeric change of 1,800.
Limitations：Of 33 Hot technologies, 15 have percentages and 18 are Not available: Office10%, Python9%, Excel8%, PowerPoint/R6%, MATLAB4%, SQL3%, C++ and Outlook/SolidWorks2%, and Word/Linux/Java/JavaScript/C1%. The denominator is all unique U.S. job postings for this occupation throughout 2025, not on-the-job use or a GenAI adoption rate; missing percentages are not filled with 0. Another 27 software categories are listed, including CAD and CAM, configuration management, compliance, expert systems, medical, and requirements analysis; software categories and generative AI are different.
Limitations：The 311 U.S. related training directory records are based on the IPEDS2025—26 directory, 2024—25 degree records, and CIP mapping, and include undergraduate and graduate programs; they do not equal 311 real-time enrollment programs. The apprenticeship area has only the general entry point, and specific open programs, conditions, costs, and pay were not verified.
Limitations：The U.S. directory of 10 related third-party certifications covers IRB and IACUC administration, medical device auditing, reliability, clinical engineering, electronics and imaging repair, student engineering fundamentals, and the PE examination; these are not a Chinese national qualification, a threshold for all biomedical engineers, or authorization for clinical practice or product release.
Limitations：2025 employed occupation wage percentiles, not an individual take-home amount or starting salary.
Limitations：National Bureau of Statistics 2025 scientific research and technical services: urban non-private 182,064 and private 83,560 yuan per year; above-scale enterprises in this industry: 173,855 overall, 172,877 for professional and technical, and 324,177 for management, yuan per year. Match the broad-category reference by actual R and D service employer industry and your own duties; medical device manufacturing or hospitals must not automatically be assigned to this industry just because the position involves research. The average is not this occupation's median, starting salary, or monthly wage. Urban legal entity units with 5 or more people, excluding sole proprietors and freelancers; non-private includes government and public institutions and Hong Kong, Macao, Taiwan, and foreign-invested units. The above-scale definition refers to corporate legal entity units in the 16 specified industries and does not include public hospitals or universities. Pre-tax wages include individual withheld taxes and social insurance and housing fund contributions, and exclude equity incentive vesting, share dividends, and capital gains; dispatch and contract employees should be verified by the actual paying unit and statistical definition, and not all contract employees are excluded wholesale.
Limitations：Industry annual wages are medians; this statistic does not provide individual income or Chinese pay.
Limitations：Editors reason from this occupation's tasks: tools can assist search, statistical code, charts, simulation result organization, and report drafts; actual adoption, time savings, error rates, and occupational replacement proportions were not verified. Design inputs, test verification, anomaly judgment, clinical evaluation, and release follow regulations and institutional responsibility; there is no blanket requirement that all automatic control output be manually checked offline item by item before running. The pathway and fit suggestions are not employer data or causal research.
Limitations：The Chinese medical device regulation adopts the 2024 revision (as amended effective 2025-01-20): Class I products are filed and Class II and Class III products are registered; the registration or filing holder bears full life-cycle quality responsibility, and the submitted materials must be true, accurate, complete, and traceable. Clinical evaluation has exemption conditions, and a clinical trial cannot be uniformly required for all devices; actual trials require verifying institutional conditions, filing or approval for specified high-risk Class III devices, ethics review, and written consent. Product registration and production licensing are institutional and product statuses, not an individual license for each engineer.
Limitations：As of 2026-10-09, the 2014 No. 64 Good Manufacturing Practice applies to design and development and other activities of medical device manufacturers and to research and registration applicants and filers: design control, approval of inputs and outputs, staged reviews, verification and validation and change records, and necessary verification or validation and approval before implementation of changes; verification and validation must not be merged into one item. The 2025 No. 107 new edition has been issued and takes effect on 2026-11-01, replacing the 2014 edition; provisions that have not yet taken effect are not treated here as current thresholds. Specific procedures should be verified by product, institutional responsibility, and the applicable clauses.
Limitations：Effective 2026-11-01; not yet in force as of 2026-10-09.
Limitations：Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately.
Limitations：Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately.
Limitations：ASQ CMDA requires 5 years of relevant full-time paid experience, including 1 year with decision-making responsibility; an associate's degree reduces this by 1 year, a bachelor's degree by 3 years, and a master's or doctoral degree by 4 years, and only one tier applies. CRE requires 8 years, including 3 years with decision-making responsibility; a technical school qualification reduces this by 1 year, an associate's degree by 2 years, a bachelor's degree by 4 years, and a master's or doctoral degree by 5 years. Both certificates cost 550 USD for the examination, with 100 off for members on the first attempt and 350 for a retake; recertification is every 3 years through 18 RUs or re-examination, and single-certificate journal recertification costs 120 USD for members and 160 USD for non-members. CMDA2026 new body of knowledge takes effect November 1; preparation time and total cost vary by person.
Limitations：ASQ CMDA requires 5 years of relevant full-time paid experience, including 1 year with decision-making responsibility; an associate's degree reduces this by 1 year, a bachelor's degree by 3 years, and a master's or doctoral degree by 4 years, and only one tier applies. CRE requires 8 years, including 3 years with decision-making responsibility; a technical school qualification reduces this by 1 year, an associate's degree by 2 years, a bachelor's degree by 4 years, and a master's or doctoral degree by 5 years. Both certificates cost 550 USD for the examination, with 100 off for members on the first attempt and 350 for a retake; recertification is every 3 years through 18 RUs or re-examination, and single-certificate journal recertification costs 120 USD for members and 160 USD for non-members. CMDA2026 new body of knowledge takes effect November 1; preparation time and total cost vary by person.
Limitations：ASQ CMDA requires 5 years of relevant full-time paid experience, including 1 year with decision-making responsibility; an associate's degree reduces this by 1 year, a bachelor's degree by 3 years, and a master's or doctoral degree by 4 years, and only one tier applies. CRE requires 8 years, including 3 years with decision-making responsibility; a technical school qualification reduces this by 1 year, an associate's degree by 2 years, a bachelor's degree by 4 years, and a master's or doctoral degree by 5 years. Both certificates cost 550 USD for the examination, with 100 off for members on the first attempt and 350 for a retake; recertification is every 3 years through 18 RUs or re-examination, and single-certificate journal recertification costs 120 USD for members and 160 USD for non-members. CMDA2026 new body of knowledge takes effect November 1; preparation time and total cost vary by person.
Limitations：CIP and CPIA target IRB and HRPP or IACUC administration and require 24 months of equivalent relevant experience within the past 7 years; serving only as a committee member or researcher or interacting with the ethics office only occasionally does not automatically qualify. Both certificates cost 425 USD for the examination, and a failure requires waiting 90 days. CIP requires 30 hours of qualifying continuing education every 3 years (at least 15 hours of recognized or professional certification activity) or an examination, with at most two CE renewals within 9 years, and holders continuously certified for more than 10 years may use CE alone; CPIA requires 50 hours every 5 years (at least 40 hours of IACUC knowledge and at most 10 of other content) or an examination. Both renewal fees are 425 USD, and a delay of more than 6 months requires recovery by examination; these are not basic entry certificates for people without experience.
Limitations：CIP and CPIA target IRB and HRPP or IACUC administration and require 24 months of equivalent relevant experience within the past 7 years; serving only as a committee member or researcher or interacting with the ethics office only occasionally does not automatically qualify. Both certificates cost 425 USD for the examination, and a failure requires waiting 90 days. CIP requires 30 hours of qualifying continuing education every 3 years (at least 15 hours of recognized or professional certification activity) or an examination, with at most two CE renewals within 9 years, and holders continuously certified for more than 10 years may use CE alone; CPIA requires 50 hours every 5 years (at least 40 hours of IACUC knowledge and at most 10 of other content) or an examination. Both renewal fees are 425 USD, and a delay of more than 6 months requires recovery by examination; these are not basic entry certificates for people without experience.
Limitations：CIP and CPIA target IRB and HRPP or IACUC administration and require 24 months of equivalent relevant experience within the past 7 years; serving only as a committee member or researcher or interacting with the ethics office only occasionally does not automatically qualify. Both certificates cost 425 USD for the examination, and a failure requires waiting 90 days. CIP requires 30 hours of qualifying continuing education every 3 years (at least 15 hours of recognized or professional certification activity) or an examination, with at most two CE renewals within 9 years, and holders continuously certified for more than 10 years may use CE alone; CPIA requires 50 hours every 5 years (at least 40 hours of IACUC knowledge and at most 10 of other content) or an examination. Both renewal fees are 425 USD, and a delay of more than 6 months requires recovery by examination; these are not basic entry certificates for people without experience.
Limitations：CIP and CPIA target IRB and HRPP or IACUC administration and require 24 months of equivalent relevant experience within the past 7 years; serving only as a committee member or researcher or interacting with the ethics office only occasionally does not automatically qualify. Both certificates cost 425 USD for the examination, and a failure requires waiting 90 days. CIP requires 30 hours of qualifying continuing education every 3 years (at least 15 hours of recognized or professional certification activity) or an examination, with at most two CE renewals within 9 years, and holders continuously certified for more than 10 years may use CE alone; CPIA requires 50 hours every 5 years (at least 40 hours of IACUC knowledge and at most 10 of other content) or an examination. Both renewal fees are 425 USD, and a delay of more than 6 months requires recovery by examination; these are not basic entry certificates for people without experience.
Limitations：CIP and CPIA target IRB and HRPP or IACUC administration and require 24 months of equivalent relevant experience within the past 7 years; serving only as a committee member or researcher or interacting with the ethics office only occasionally does not automatically qualify. Both certificates cost 425 USD for the examination, and a failure requires waiting 90 days. CIP requires 30 hours of qualifying continuing education every 3 years (at least 15 hours of recognized or professional certification activity) or an examination, with at most two CE renewals within 9 years, and holders continuously certified for more than 10 years may use CE alone; CPIA requires 50 hours every 5 years (at least 40 hours of IACUC knowledge and at most 10 of other content) or an examination. Both renewal fees are 425 USD, and a delay of more than 6 months requires recovery by examination; these are not basic entry certificates for people without experience.
Limitations：CIP and CPIA target IRB and HRPP or IACUC administration and require 24 months of equivalent relevant experience within the past 7 years; serving only as a committee member or researcher or interacting with the ethics office only occasionally does not automatically qualify. Both certificates cost 425 USD for the examination, and a failure requires waiting 90 days. CIP requires 30 hours of qualifying continuing education every 3 years (at least 15 hours of recognized or professional certification activity) or an examination, with at most two CE renewals within 9 years, and holders continuously certified for more than 10 years may use CE alone; CPIA requires 50 hours every 5 years (at least 40 hours of IACUC knowledge and at most 10 of other content) or an examination. Both renewal fees are 425 USD, and a delay of more than 6 months requires recovery by examination; these are not basic entry certificates for people without experience.
Limitations：ETA BMD and BIET target biomedical electronics and imaging equipment technicians, with 75 and 100 questions respectively, a 75% pass mark, 2 hours, 80 USD, validity of 4 years with required maintenance; one free retake must be taken within 1 year of the first attempt. BIET can be taken standalone; those who later obtain CETa and meet two years of combined training or experience can upgrade to Journeyman for 55 USD, and the upgrade conditions are not treated as the conditions for all standalone BIET registrations. Specific maintenance hours and fees and BMD individual eligibility must also be verified with the issuing body.
Limitations：RECF Pre-Engineering covers student engineering fundamentals: Fundamentals plus any two of eight modules, each with a 70% pass mark; a retake is possible after 20 days, with at most three attempts per academic year, plus local and school limits. The fee version on the original page and the 2026 fee version returned by search are inconsistent, and the current fee was not verified this round, so neither is presented as a definite price; this is not a licensed professional engineer permit.
Limitations：The NCEES agricultural and biological PE and the environmental PE have 85 questions in 8.5 hours and 80 questions in 8 hours respectively; the former is offered once a year on 2026-10-28 and the latter year-round, with an examination fee of 400 USD each. The examinations are designed for people with at least 4 years of professional experience after university, but local state boards may have additional qualification, fee, or licensing requirements; passing the examination does not automatically grant a state license, and no uniform renewal cycle is presumed.
Limitations：The NCEES agricultural and biological PE and the environmental PE have 85 questions in 8.5 hours and 80 questions in 8 hours respectively; the former is offered once a year on 2026-10-28 and the latter year-round, with an examination fee of 400 USD each. The examinations are designed for people with at least 4 years of professional experience after university, but local state boards may have additional qualification, fee, or licensing requirements; passing the examination does not automatically grant a state license, and no uniform renewal cycle is presumed.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：Related directory Q and A; the issuing body takes priority for precise current conditions, and a generic category of more than 2 years is not treated as a Chinese license.
Limitations：The official summary was actually read and is not passed off as the full text; ISCO08 task exposure does not provide actual adoption or layoff proportions for this occupation.
Limitations：Supports the target duties; transition distance and gaps are editorial suggestions, not hiring probabilities.
Limitations：Supports the target duties; transition distance and gaps are editorial suggestions, not hiring probabilities.
Limitations：Supports the target duties; transition distance and gaps are editorial suggestions, not hiring probabilities.
Limitations：Supports the target duties; transition distance and gaps are editorial suggestions, not hiring probabilities.
Limitations：Supports the target duties; transition distance and gaps are editorial suggestions, not hiring probabilities.
Limitations：Supports the target duties; transition distance and gaps are editorial suggestions, not hiring probabilities.
Limitations：Supports the target duties; transition distance and gaps are editorial suggestions, not hiring probabilities.
Medians, annual averages, percentiles, employment size, growth, and annual openings are used separately; the training directory is not enrollment, and the assessments, transition, and AI suggestions are not validity or hiring research; data gaps and out-of-scope conflicts are in this round's author report.
Big Five (English) · MBTI (Chinese) · Enneagram (Chinese) · Intelligence and reasoning (Chinese)
Evaluation and verification and compliance
| Comparison track |
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| Core purpose | Editorial workflow and deliverable check: leave records to procedure and standards that state requirements and assumptions, design inputs and outputs and verification and validation methods, experiment and simulation conditions and data and instruments and versions, risks and anomalies and deviations and actions, and the parts needing retest or review and changes, so that reviewers and auditors and verifiers can reproduce and judge from them. Specific procedures should be verified by product and institutional responsibility. | Reviewable design and verification records |
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| Main subjects and basis | Editorial workflow and deliverable check: the subjects are biological and medical systems and devices and instruments and software and processes, along with the verification and validation and risk and change records that support judgment; the basis is the institution's quality system, design control, risk management, and verification procedures and equipment manuals, and the applicable jurisdiction's requirements for medical devices, biomaterials, human genetic resources, personal information, and laboratory safety. Specific procedures should be verified by product and institutional responsibility. | Design history and test and change and risk records |
| Core process | Editorial workflow and deliverable check: confirm requirements and risks and use scenarios → design the plan and verification methods → conduct experiments or simulations and honestly record data and conditions → review risk and anomalies and compliance and manufacturability → write records and reports and accept review → deliver under change control and keep records. Specific procedures should be verified by product and institutional responsibility. | Requirement — design — verification — review — evaluation — delivery |
| Main outputs | Editorial workflow and deliverable check: requirements and assumptions and design inputs and outputs, verification and validation methods and results, experiment and simulation conditions and data and instruments and method versions, risks and anomalies and deviations and changes and open items, and the parts needing retest or review and needing evaluation. Specific procedures should be verified by product and institutional responsibility. | Reviewable design and verification records |
| Responsible party | Editorial workflow and deliverable check: routine design calculations and experiments and simulations and documentation are your own responsibility under your job duties; decisions involving design confirmation and release for medical devices and biomaterials, biocompatibility and sterilization and electrical safety conclusions, the collection and use and external provision of human genetic resources and personal information, and external publication and patent applications and regulatory communication are made by personnel with the corresponding duties and authorization and the quality and regulatory and ethics management departments under the applicable rules, and you must stop and report when data are insufficient, risks are unacceptable, or work exceeds your authorization. Specific procedures should be verified by product and institutional responsibility. | You and project and quality and regulatory and clinical and production personnel |
| Permissions and approval | U.S. new-entrant education responses: 43% bachelor's, 26% master's, and 13% doctorate; this is not the current workforce education distribution, and the displayed items are not forced to sum. Job Zone4/SVP7 to below 8 is the preparation level for the occupational group, not a fixed individual training duration or a Chinese qualification. BLS states that a relevant engineering bachelor's degree is usual, some positions require graduate study, and leading research teams usually requires graduate study. The 311 U.S. related training directory records are based on the IPEDS2025—26 directory, 2024—25 degree records, and CIP mapping, and include undergraduate and graduate programs; they do not equal 311 real-time enrollment programs. The apprenticeship area has only the general entry point, and specific open programs, conditions, costs, and pay were not verified. The U.S. directory of 10 related third-party certifications covers IRB and IACUC administration, medical device auditing, reliability, clinical engineering, electronics and imaging repair, student engineering fundamentals, and the PE examination; these are not a Chinese national qualification, a threshold for all biomedical engineers, or authorization for clinical practice or product release. | Education and preparation |
| Conclusion boundaries | Editorial workflow and deliverable check: education, vocational training, industry certification, employer appointment and job authorization, sign-off authority for medical device and biomaterial verification and release, approval for the collection and use and external provision of human genetic resources and personal information, and the applicable jurisdiction's requirements for medical devices and laboratory safety and ethics are different statuses: education and completion of training do not confer the authority to decide design confirmation or external publication or cross-border data transfer; these must be verified item by item by institution, position, and jurisdiction; the wage and employment and projection data on this page are taken from the O*NET 17-2031.00 occupation definition and labeled at each occurrence; for mainland China only the scientific research and technical services industry average is used as an explicit proxy and labeled as not this occupation's wage. Specific procedures should be verified by product and institutional responsibility. | They do not substitute for one another |
Education and preparation pathway
Getting on the job and job authorization
Information, data, samples, and record compliance
Hours, pressure, and milestones
Editorial workflow and deliverable check: continuing training and review; specific procedures should be verified by product and institutional responsibility.
Do not use it this way: Editorial fit check: note that this page does not use any test score as a basis for admission or elimination. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
Do not use it this way: Editorial fit check: note that this page provides no emotional ability thresholds and does not equate high scores with competence. This is a verification suggestion, and no causal or selection validity research on personality or emotional assessments is cited.
How to reduce risk：Editorial health suggestion: verify ergonomics, ventilation, applicable PPE, working hours and rest, and discomfort reporting by actual risk assessment; uniform rotation and examination frequency were not verified, and no job system is set on this page.
Evidence：O*NET 17-2031.00 occupation summary · O*NET 17-2031.00 detailed information (work context)
Evidence：O*NET 17-2031.00 occupation summary · O*NET 17-2031.00 detailed information (work context)
Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately.
Access, sharing, and recording responsibilities are not automatically inferred from education.
Occupational importance ratings such as computers 93 and analysis 90 do not set an individual hiring threshold.
All 57 U.S. context items show graded percentages: accuracy 61% extremely important, 17% very important, and 17% important; email 87% daily and 13% weekly but not daily; team work 48% extremely important and 43% very important; environmentally controlled indoors 70% daily and 22% weekly but not daily. Sitting is 17% continually, 65% more than half the time, and 17% about half the time; standing is 17% about half the time and 83% less than half the time. 43% report a typical workweek longer than 40 hours, while 57% report a 40-hour workweek; deadlines are 43% weekly but not daily and 48% monthly but not weekly. Consequences of error are 17% very serious, 22% serious, and 48% fairly serious; safety responsibility is 13% very high, 35% high, 22% moderate, and 30% limited; effect on results is 48% important and 39% moderate. Decisions are 18% a lot of freedom, 64% some, and 18% limited, and task priority is 13% a lot, 74% some, and 13% limited; deciding is 17% weekly but not daily, 43% monthly but not weekly, and 39% yearly but not monthly. Schedules are 77% regular with fixed arrangements and 14% irregular, which is not the same as a day shift or no shift work. Traditional automation is 30% moderate, 48% slight, and 13% none, not a GenAI adoption rate. Disease or infection exposure is 13% monthly but not weekly, 39% yearly but not monthly, and 35% never; minor burns or cuts are 30% yearly but not monthly and 61% never; noise is 17% weekly but not daily, 22% monthly but not weekly, 43% yearly but not monthly, and 17% never. Graded exposure is not an illness or incident rate, and categories that are not listed are not normalized.
Editorially verify the design and test source records and the software and instrument versions and the basis for changes.
Editors reason from this occupation's tasks: tools can assist search, statistical code, charts, simulation result organization, and report drafts; actual adoption, time savings, error rates, and occupational replacement proportions were not verified. Design inputs, test verification, anomaly judgment, clinical evaluation, and release follow regulations and institutional responsibility; there is no blanket requirement that all automatic control output be manually checked offline item by item before running.
After finishing, ask an experienced person to review design control execution and data and record completeness, and keep the reasons for changes.
Do not fabricate or modify source data or verification records in the exercise, and do not use any real clinical data or human genetic resource data or restricted materials in the exercise; operations involving clinical work and biomaterials and animal experiments must be handled by authorized personnel to procedure.
The exercise does not replace the applicable jurisdiction's and the institution's quality and design control and laboratory safety management rules and does not constitute any way of circumventing regulation; do not fabricate or modify source data or verification records in the exercise, and do not use any real clinical data or human genetic resource data or restricted materials in the exercise; operations involving clinical work and biomaterials and animal experiments must be handled by authorized personnel to procedure.
Handling clinical and patient data and human genetic resource data and commercial data requires prior authorization, and you must record receipt and use and storage and destruction and sharing restrictions; do not store or transfer restricted data outside authorized areas and systems.
| Do not selectively record data or modify verification records after the fact, and do not commit to external conclusions or provide data on your own. |
| Probation | Complete module-level design and verification and documentation according to the institutional quality system and design control, and accept review by your mentor or project lead of the basis and records and compliance. | Requirements and design inputs and outputs and verification and test records are complete; anomalies and failures and deviations are explicitly marked; data and laboratory and biomaterial safety requirements are properly implemented. | Do not skip training, evaluation, or review requirements, and do not conduct activities when the authorization or data use boundary is unclear. |
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| First 90 days on the job | Verify whether pre-job training, design confirmation and release and data use and laboratory safety authorization, the requirements for handling and providing clinical data and human genetic resources and personal information externally, and the change and evaluation and record retention requirements are in place. | Able to independently complete common design and verification and documentation; training and authorization status is confirmed in writing. | Authorization and training must be confirmed in writing; verbal assurances are not a substitute. |
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Output: a set of review comments and a revision statement.
Output: a one-page decision statement with an evidence list.
| A degree does not confer authorization for design validation, external provision of data, or external publication. |
| Employer-provided quality system and design and risk management and laboratory safety training and on-the-job mentoring | People who join a specific institution | Determines whether you can carry out design and verification and deliver according to institutional procedures. | Institutional quality and job training should be verified by regulation and employer; Job Zone does not prove what most Chinese institutions require. | You must complete institution-arranged quality and design control and risk management and laboratory safety training and assessment, and receive project-based mentoring and authorization. | According to institutional arrangements. | Pre-job training is not the same as sign-off authority for design confirmation and release. |
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| 10 related U.S. certificates | Corresponding specialty duties, students, and applicants | Scope-limited third-party credentials | The U.S. directory of 10 related third-party certifications covers IRB and IACUC administration, medical device auditing, reliability, clinical engineering, electronics and imaging repair, student engineering fundamentals, and the PE examination; these are not a Chinese national qualification, a threshold for all biomedical engineers, or authorization for clinical practice or product release. | Certificate conditions are given under the specific categories below and cannot be replaced uniformly by institutional arrangements. | Examination and renewal fees are listed separately and the total preparation cost was not verified. | Education, examinations, issuance, state licensing, employer appointment, and release authority are separate. |
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| General apprenticeship entry point | People who want to enter through on-the-job training | Serves as a pathway for on-the-job training and skill formation. | The 311 U.S. related training directory records are based on the IPEDS2025—26 directory, 2024—25 degree records, and CIP mapping, and include undergraduate and graduate programs; they do not equal 311 real-time enrollment programs. The apprenticeship area has only the general entry point, and specific open programs, conditions, costs, and pay were not verified. | The qualifications of specific open programs were not verified this round. | Hours, costs, and pay were not verified. | Completing an apprenticeship is not the same as design confirmation or data use authorization. |
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| Vocational training and continuing education (design and verification, quality, and regulatory) | People who want to build up engineering and compliance ability | Serves as proof of training in design and verification and quality and regulatory ability. | The 311 U.S. related training directory records are based on the IPEDS2025—26 directory, 2024—25 degree records, and CIP mapping, and include undergraduate and graduate programs; they do not equal 311 real-time enrollment programs. The apprenticeship area has only the general entry point, and specific open programs, conditions, costs, and pay were not verified. | Complete courses and assessments according to the arrangements of the training provider and employer. | Maintain according to institutional arrangements and course validity periods. | Completing training is limited to a course and version scope and is not the same as design or release authorization. |
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| Applicable Chinese medical device and data requirements | Those actually carrying out the related activities | Clarify the product, the institution, and your own responsibilities | The Chinese medical device regulation adopts the 2024 revision (as amended effective 2025-01-20): Class I products are filed and Class II and Class III products are registered; the registration or filing holder bears full life-cycle quality responsibility, and the submitted materials must be true, accurate, complete, and traceable. Clinical evaluation has exemption conditions, and a clinical trial cannot be uniformly required for all devices; actual trials require verifying institutional conditions, filing or approval for specified high-risk Class III devices, ethics review, and written consent. Product registration and production licensing are institutional and product statuses, not an individual license for each engineer. As of 2026-10-09, the 2014 No. 64 Good Manufacturing Practice applies to design and development and other activities of medical device manufacturers and to research and registration applicants and filers: design control, approval of inputs and outputs, staged reviews, verification and validation and change records, and necessary verification or validation and approval before implementation of changes; verification and validation must not be merged into one item. The 2025 No. 107 new edition has been issued and takes effect on 2026-11-01, replacing the 2014 edition; provisions that have not yet taken effect are not treated here as current thresholds. Specific procedures should be verified by product, institutional responsibility, and the applicable clauses. | Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately. | Specific qualification and training costs and institutional processing fees were not verified. | Not all engineers are required to hold all certificates, and product registration is not treated as a personal license. |
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| ASQ CMDA/CRE | Audit and reliability professionals | Specialized ability | ASQ CMDA requires 5 years of relevant full-time paid experience, including 1 year with decision-making responsibility; an associate's degree reduces this by 1 year, a bachelor's degree by 3 years, and a master's or doctoral degree by 4 years, and only one tier applies. CRE requires 8 years, including 3 years with decision-making responsibility; a technical school qualification reduces this by 1 year, an associate's degree by 2 years, a bachelor's degree by 4 years, and a master's or doctoral degree by 5 years. Both certificates cost 550 USD for the examination, with 100 off for members on the first attempt and 350 for a retake; recertification is every 3 years through 18 RUs or re-examination, and single-certificate journal recertification costs 120 USD for members and 160 USD for non-members. CMDA2026 new body of knowledge takes effect November 1; preparation time and total cost vary by person. | ASQ CMDA requires 5 years of relevant full-time paid experience, including 1 year with decision-making responsibility; an associate's degree reduces this by 1 year, a bachelor's degree by 3 years, and a master's or doctoral degree by 4 years, and only one tier applies. CRE requires 8 years, including 3 years with decision-making responsibility; a technical school qualification reduces this by 1 year, an associate's degree by 2 years, a bachelor's degree by 4 years, and a master's or doctoral degree by 5 years. Both certificates cost 550 USD for the examination, with 100 off for members on the first attempt and 350 for a retake; recertification is every 3 years through 18 RUs or re-examination, and single-certificate journal recertification costs 120 USD for members and 160 USD for non-members. CMDA2026 new body of knowledge takes effect November 1; preparation time and total cost vary by person. | Fees are in U.S. dollars and exclude preparation, travel, and total cost. | Not a Chinese medical device registration or release authorization. |
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| PRIM&R CIP/CPIA | IRB and IACUC administrators | Specialized ethics administration credential | CIP and CPIA target IRB and HRPP or IACUC administration and require 24 months of equivalent relevant experience within the past 7 years; serving only as a committee member or researcher or interacting with the ethics office only occasionally does not automatically qualify. Both certificates cost 425 USD for the examination, and a failure requires waiting 90 days. CIP requires 30 hours of qualifying continuing education every 3 years (at least 15 hours of recognized or professional certification activity) or an examination, with at most two CE renewals within 9 years, and holders continuously certified for more than 10 years may use CE alone; CPIA requires 50 hours every 5 years (at least 40 hours of IACUC knowledge and at most 10 of other content) or an examination. Both renewal fees are 425 USD, and a delay of more than 6 months requires recovery by examination; these are not basic entry certificates for people without experience. | CIP and CPIA target IRB and HRPP or IACUC administration and require 24 months of equivalent relevant experience within the past 7 years; serving only as a committee member or researcher or interacting with the ethics office only occasionally does not automatically qualify. Both certificates cost 425 USD for the examination, and a failure requires waiting 90 days. CIP requires 30 hours of qualifying continuing education every 3 years (at least 15 hours of recognized or professional certification activity) or an examination, with at most two CE renewals within 9 years, and holders continuously certified for more than 10 years may use CE alone; CPIA requires 50 hours every 5 years (at least 40 hours of IACUC knowledge and at most 10 of other content) or an examination. Both renewal fees are 425 USD, and a delay of more than 6 months requires recovery by examination; these are not basic entry certificates for people without experience. | Examination and renewal are 425 USD each; this is not a fixed investment for all engineers. | Committee or research experience does not automatically satisfy the administrative experience requirement. |
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| ETA BMD/BIET | Electronics and imaging repair technicians | Corresponding technical scope | ETA BMD and BIET target biomedical electronics and imaging equipment technicians, with 75 and 100 questions respectively, a 75% pass mark, 2 hours, 80 USD, validity of 4 years with required maintenance; one free retake must be taken within 1 year of the first attempt. BIET can be taken standalone; those who later obtain CETa and meet two years of combined training or experience can upgrade to Journeyman for 55 USD, and the upgrade conditions are not treated as the conditions for all standalone BIET registrations. Specific maintenance hours and fees and BMD individual eligibility must also be verified with the issuing body. | ETA BMD and BIET target biomedical electronics and imaging equipment technicians, with 75 and 100 questions respectively, a 75% pass mark, 2 hours, 80 USD, validity of 4 years with required maintenance; one free retake must be taken within 1 year of the first attempt. BIET can be taken standalone; those who later obtain CETa and meet two years of combined training or experience can upgrade to Journeyman for 55 USD, and the upgrade conditions are not treated as the conditions for all standalone BIET registrations. Specific maintenance hours and fees and BMD individual eligibility must also be verified with the issuing body. | First attempts are 80 USD each; maintenance fees and hours were not verified. | A repair certificate does not prove all research and development or clinical duties. |
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| RECF Pre-Engineering | Students in related courses or robotics clubs | Engineering foundation skills | RECF Pre-Engineering covers student engineering fundamentals: Fundamentals plus any two of eight modules, each with a 70% pass mark; a retake is possible after 20 days, with at most three attempts per academic year, plus local and school limits. The fee version on the original page and the 2026 fee version returned by search are inconsistent, and the current fee was not verified this round, so neither is presented as a definite price; this is not a licensed professional engineer permit. | RECF Pre-Engineering covers student engineering fundamentals: Fundamentals plus any two of eight modules, each with a 70% pass mark; a retake is possible after 20 days, with at most three attempts per academic year, plus local and school limits. The fee version on the original page and the 2026 fee version returned by search are inconsistent, and the current fee was not verified this round, so neither is presented as a definite price; this is not a licensed professional engineer permit. | The current fee version conflict was not resolved; the renewal cycle was not verified. | Not a licensed professional engineer permit. |
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| Two NCEES PE examinations | Those intending to apply for the corresponding state license | Professional examination component | The NCEES agricultural and biological PE and the environmental PE have 85 questions in 8.5 hours and 80 questions in 8 hours respectively; the former is offered once a year on 2026-10-28 and the latter year-round, with an examination fee of 400 USD each. The examinations are designed for people with at least 4 years of professional experience after university, but local state boards may have additional qualification, fee, or licensing requirements; passing the examination does not automatically grant a state license, and no uniform renewal cycle is presumed. | The NCEES agricultural and biological PE and the environmental PE have 85 questions in 8.5 hours and 80 questions in 8 hours respectively; the former is offered once a year on 2026-10-28 and the latter year-round, with an examination fee of 400 USD each. The examinations are designed for people with at least 4 years of professional experience after university, but local state boards may have additional qualification, fee, or licensing requirements; passing the examination does not automatically grant a state license, and no uniform renewal cycle is presumed. | 400 USD examination fee each, with state application and licensing verified separately. | State qualification, renewal, and personal licensing are not automatically implied by passing the examination. |
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| CCE | Those with existing clinical engineering experience | Clinical technology management | CCE targets people with existing clinical engineering experience; O*NET lists more than 2 years of education and work experience, an examination, and renewal every 3 years through CEUs or professional development. Reading the issuing body's current precise conditions and fees encountered TLS errors and timeouts and was not verified, and old manuals or search snippets are not used as substitutes. | CCE targets people with existing clinical engineering experience; O*NET lists more than 2 years of education and work experience, an examination, and renewal every 3 years through CEUs or professional development. Reading the issuing body's current precise conditions and fees encountered TLS errors and timeouts and was not verified, and old manuals or search snippets are not used as substitutes. | Current first-attempt and renewal fees and total cost were not verified. | Historical manuals are not used to pass off current conditions. |
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The Chinese medical device regulation adopts the 2024 revision (as amended effective 2025-01-20): Class I products are filed and Class II and Class III products are registered; the registration or filing holder bears full life-cycle quality responsibility, and the submitted materials must be true, accurate, complete, and traceable. Clinical evaluation has exemption conditions, and a clinical trial cannot be uniformly required for all devices; actual trials require verifying institutional conditions, filing or approval for specified high-risk Class III devices, ethics review, and written consent. Product registration and production licensing are institutional and product statuses, not an individual license for each engineer. As of 2026-10-09, the 2014 No. 64 Good Manufacturing Practice applies to design and development and other activities of medical device manufacturers and to research and registration applicants and filers: design control, approval of inputs and outputs, staged reviews, verification and validation and change records, and necessary verification or validation and approval before implementation of changes; verification and validation must not be merged into one item. The 2025 No. 107 new edition has been issued and takes effect on 2026-11-01, replacing the 2014 edition; provisions that have not yet taken effect are not treated here as current thresholds. Specific procedures should be verified by product, institutional responsibility, and the applicable clauses. Personal information requires verifying identifiability, processing purpose, lawful basis, and permissions; medical and health personal information is a sensitive category, and anonymized information differs from engineering design data that contains no personal information. Human genetic resource materials and information should be verified by the actual definition and activity conditions of the 2024 regulations, with the health department as the competent authority; not all animal, material, device, or simulation data are human genetic resources, and not every collection or sharing requires the same type of administrative permission. Trade secrets require verifying actual secrecy, commercial value, and confidentiality measures separately.
Editorially verify the actual product and tasks, the validity and conditions of the relevant certificates, the institutional authorization, and shifts, contract, and pay.
Readiness evidence：Editorial development stage suggestion: independent scale-up and verification and equipment evaluation records. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: complete training in scale-up and technology transfer and verification and equipment safety. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: independently take on process scale-up or medical equipment evaluation and safety and maintenance management. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for the quality system and compliance and procurement evaluation. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: quality and audit and corrective action and procurement evaluation materials. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: complete training in quality and compliance and auditing. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: take part in the quality system and audit and corrective action and equipment procurement evaluation. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for registration and regulatory and compliance responsibilities. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: registration and regulatory and compliance management plans. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: build up training in regulations and registration and compliance management. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: take charge of registration and regulatory and compliance work, or move into regulation and standards. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: clarify the education and qualification and authorization requirements of the target direction. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: check item by item, against the target direction (chemical engineers, data scientists, clinical data managers, bioinformatics technicians, natural sciences managers, nanosystems engineers), the education, training, and qualification requirements. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for target direction tasks and procedure execution. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: training and rotation evaluation records and outputs. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: build up the core skills and compliance training for the target direction. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: complete core tasks of the target direction in training or rotation and receive an evaluation. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Typical scope：Editorial development stage suggestion: accountable for target direction work conclusions and records. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Readiness evidence：Editorial development stage suggestion: independent work and review records. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Credential boundary：Editorial development stage suggestion: complete the qualifications and job authorization for the target direction and work independently. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Next moves：Editorial development stage suggestion: independently take on common tasks according to target direction procedures and accept review. Verify by actual position, qualifications, and permissions; no fixed promotion years are set.
Limitations：Editorial ratings use the existing occupational responsibilities and AI task analysis on this page. They are not adoption rates, measured effects, job-disappearance or personal-unemployment probabilities, or official scores from Stanford or another external institution. No measured time weights or future robot deployment are assumed.
