{"schemaVersion":"1.0","exportedAt":"2026-05-15T12:40:47.841Z","occupation":{"soc":"17-2031.00","title":"Bioengineers and Biomedical Engineers","group":"Architecture & Engineering","sector":"54","jobZone":4,"jobZoneInferred":false},"framework":{"version":"v.26.05","description":"","contextCovered":"This framework covers the full practice context of bioengineers and biomedical engineers working in clinical, research, manufacturing, and regulatory environments—from entry-level laboratory and design support through executive leadership of biomedical innovation programs.","levels":{"emerging":{"label":"Emerging","statements":["Biomedical equipment safety checklists — apply established evaluation protocols under direct supervision in a clinical or laboratory setting.","Technical report drafts — compile data summaries using prescribed templates with guidance from senior engineers on a regulated project team.","Engineering and biobehavioral science principles — recognize and apply foundational concepts when assisting in the design of basic medical instrumentation.","Research data — collect and record experimental measurements accurately under the direction of life scientists or medical researchers in a multidisciplinary lab.","Medical software applications — operate and configure existing systems under supervision to support diagnostic or clinical workflows.","Experiment databases — enter, organize, and maintain records of experiment characteristics and results using established database structures.","Statistical modeling software — execute pre-built models or simulations under guidance to support preliminary data analysis.","Current scientific literature — review assigned journal articles and trade publications to summarize relevant findings for the project team.","CAD software tools — create basic engineering drawings or schematics for biomedical device components following documented specifications.","Regulatory submission requirements — identify applicable standards and compile supporting documentation under senior engineer oversight."]},"developing":{"label":"Developing","statements":["Biomedical equipment performance — evaluate safety, efficiency, and effectiveness using standardized test protocols with limited oversight in a hospital or research facility.","Technical reports and data summaries — author clear, well-structured documents for regulatory submissions or internal stakeholders with routine peer review.","Medical diagnostic instrumentation — contribute to design and development cycles, applying engineering principles independently for familiar device categories.","Interdisciplinary research teams — collaborate with life scientists, chemists, and medical scientists to address engineering aspects of biological systems in ongoing studies.","Custom software adaptations — modify or configure existing computer hardware or software solutions to meet defined medical science requirements.","Experiment result databases — design and maintain database schemas, validate data integrity, and generate routine reports for research tracking.","Statistical models and simulations — develop and validate quantitative models using analytical software to support product or research decisions.","Scientific and industry literature — synthesize emerging findings from journals and trade sources and present relevance to current projects at team meetings.","Systems analysis — assess how biomedical device subsystems interact and identify performance gaps in familiar engineering contexts.","CAD and CAM software — produce detailed design drawings and manufacturing documentation for medical device components within an established product-development workflow."]},"proficient":{"label":"Proficient","statements":["Biomedical equipment safety and efficacy — conduct comprehensive, autonomous evaluations across diverse device classes and recommend corrective actions in clinical or manufacturing environments.","Research articles and patent applications — independently author, revise, and finalize technical documents for scientific publication, regulatory bodies, and intellectual property filings.","Novel medical diagnostic and clinical instrumentation — lead full design and development cycles from concept through validation, integrating engineering and biobehavioral science principles.","Cross-disciplinary research initiatives — drive the engineering contribution to complex biological-systems studies alongside medical scientists, managing scope and methodology independently.","Medical hardware and software systems — architect and develop purpose-built computational solutions for advanced diagnostic or therapeutic applications without routine oversight.","Research data infrastructure — design scalable database architectures, establish data governance practices, and perform advanced querying to support multi-study programs.","Advanced statistical models and simulations — build, calibrate, and interpret sophisticated simulation frameworks that inform critical design or clinical decisions.","Scientific literature synthesis — critically evaluate and integrate findings from diverse sources to identify knowledge gaps and shape research or product strategy.","Systems evaluation — analyze full-system performance against engineering and clinical requirements, recommend design changes, and verify outcomes across non-routine scenarios.","Technology design — specify and prototype innovative biomedical technologies by selecting and integrating appropriate engineering methods, materials, and computational tools."]},"advanced":{"label":"Advanced","statements":["Organizational equipment evaluation strategy — establish enterprise-wide frameworks and standards for assessing biomedical equipment safety, efficiency, and effectiveness across business units or research portfolios.","Scientific publication and regulatory strategy — direct the preparation and dissemination of high-impact research, patent portfolios, and regulatory submissions, setting quality and compliance standards for the engineering organization.","Biomedical innovation roadmap — define the multi-year vision and technical direction for medical instrumentation and device development programs, aligning with clinical, regulatory, and commercial goals.","Research partnership leadership — initiate and govern large-scale interdisciplinary collaborations with academic institutions, clinical partners, and industry consortia to advance bioengineering knowledge.","Digital health and software strategy — lead the selection, adaptation, and deployment of medical software and computational platforms at organizational scale, ensuring integration with clinical and regulatory ecosystems.","Enterprise data governance — architect and champion organization-wide data management policies, experiment databases, and analytics capabilities that underpin evidence-based decision-making.","Modeling and simulation capability building — establish organizational centers of excellence in statistical modeling and simulation, setting methodology standards and mentoring engineering teams.","Knowledge management and learning culture — institute structured processes for monitoring scientific and technological advances and translating insights into strategic program decisions and talent development.","Engineering talent development — mentor, coach, and evaluate biomedical engineers across career stages, designing learning strategies and competency pathways that build organizational capability.","Systems-level judgment and risk governance — exercise authoritative judgment on complex cross-functional engineering and clinical trade-offs, setting organizational risk tolerance and approval criteria for critical biomedical programs."]}}},"sources":{"onet":"v30.2 (CC BY 4.0)","crosswalk":"https://skillscrosswalk.com","generator":"LER.me"},"attribution":"© EBSCOed"}