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Microsystems Engineers

SOC 17-2199.06Job Zone 5 · Extensive Preparationv.26.05

Context coveredThis framework covers the full professional scope of Microsystems Engineers working in research, design, fabrication, and product development environments requiring advanced MEMS expertise, from supervised entry-level contributions through executive technical leadership.

Sources:O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.SkillsCrosswalkSkillsCrosswalk — O*NET enrichment + adjacency index. Opens in new tab.
Emerging
Entry / Apprentice
  1. MEMS component schematics — draft initial layouts under direct supervision using CAD software, adhering to established process and package constraints in a research lab setting.
  2. Simulation and modeling software — execute pre-configured analyses of MEMS device characteristics such as cost and performance under guidance from senior engineers.
  3. Engineering documents — compile and format bills of materials and component specifications by following approved templates within a structured documentation management system.
  4. Failure analysis data — collect and organize structured datasets to support reliability and yield improvement investigations under the direction of a project lead.
  5. Research project schedules — assist in tracking milestones and resource allocations for MEMS development projects using standard project management tools.
  6. Market and customer requirement data — review and summarize inputs to inform preliminary MEMS product design proposals under senior engineer oversight.
  7. Quality assurance checklists — populate and verify process control checklists for MEMS device fabrication following established quality control protocols.
  8. Technical findings — prepare written summaries of MEMS operating characteristics and performance results for internal team review under editorial guidance.
  9. Physics and mathematics principles — apply foundational analytical methods to interpret MEMS sensor behavior within laboratory experimental contexts.
  10. CAD and design software tools — learn and apply standard microsystems design environments to complete assigned schematic tasks within supervised project workflows.
Developing
Mid-level / Established
  1. Integrated MEMS component layouts — create and revise schematics and physical layouts with reduced oversight, balancing process capability and package constraints in a production-oriented design environment.
  2. MEMS device simulation models — configure and execute modeling software analyses to evaluate performance trade-offs across multiple candidate design iterations independently.
  3. Engineering documentation suites — maintain and update formal engineering records including schematics, materials specifications, and packaging requirements across the full product lifecycle.
  4. Reliability and yield analyses — conduct structured failure mode analyses and interpret statistical yield data to recommend process improvements on active fabrication lines.
  5. MEMS project planning — develop and manage detailed engineering research schedules, coordinating task dependencies and resource needs across multidisciplinary teams.
  6. MEMS product proposals — synthesize customer requirements and competitive market data into coherent design proposals for review by senior engineering leadership.
  7. Quality control protocol documentation — author and maintain comprehensive process control documentation including data collection plans and reporting formats for MEMS device qualification.
  8. Cross-functional knowledge transfer — present operating characteristics and performance experience to design and manufacturing engineers during new product introduction meetings.
  9. Systems analysis — evaluate interactions among MEMS subsystems to identify performance bottlenecks and propose corrective design adjustments in familiar device families.
  10. File versioning and configuration management — apply version control practices to maintain traceability of design files and documentation throughout iterative MEMS development cycles.
Proficient
Senior / Expert IC
  1. Complex MEMS schematic and layout packages — autonomously create complete integrated schematics and physical layouts for novel device architectures, resolving conflicts among process, functional, and package constraints.
  2. Advanced simulation and modeling campaigns — design and execute comprehensive multi-physics simulation studies to characterize MEMS device cost, performance, and process capability across the full design space.
  3. Authoritative engineering documentation — establish and own the complete formal documentation baseline for MEMS programs, including specifications, bills of materials, and packaging requirements supporting regulatory and customer audits.
  4. Non-routine failure and reliability investigations — lead root-cause analyses for complex MEMS failure modes, applying statistical methods and experimental design to drive sustained yield improvement.
  5. Research and development program management — plan, schedule, and adapt MEMS technology development projects across multiple concurrent workstreams, managing risk and scope changes autonomously.
  6. MEMS product design innovation — propose and champion differentiated product designs grounded in deep understanding of market dynamics, customer requirements, and emerging microsystems technology trends.
  7. Quality system development — design end-to-end quality assurance frameworks for MEMS devices, integrating process control, data collection, and reporting systems aligned with industry standards.
  8. Engineering knowledge dissemination — deliver structured technical training on MEMS operating characteristics and performance experience to cross-functional engineering teams and external collaborators.
  9. Systems evaluation and optimization — assess full MEMS system performance against functional requirements, applying inductive and deductive reasoning to diagnose systemic issues and guide redesign decisions.
  10. Emerging technology integration — evaluate and incorporate advanced fabrication processes, materials, and analytical software tools into existing MEMS development workflows to expand organizational capability.
Advanced
Lead / Principal / Executive
  1. MEMS technology strategy — define the multi-year technical roadmap for microsystems design and fabrication capability, aligning organizational investments with market opportunities and competitive positioning.
  2. Organizational design standards — establish enterprise-wide schematic, layout, and documentation standards for MEMS programs, ensuring consistency and compliance across all product lines and facilities.
  3. Innovation culture leadership — cultivate a research environment that encourages novel MEMS device concepts, guiding teams from exploratory simulation through validated prototype to production readiness.
  4. Cross-enterprise reliability governance — lead organization-level failure analysis and reliability improvement initiatives for MEMS portfolios, setting quality targets and accountability structures across business units.
  5. Executive program oversight — sponsor and govern large-scale MEMS research and development programs, making high-stakes scheduling and resource decisions that shape organizational technical direction.
  6. Strategic product portfolio development — direct MEMS product strategy by integrating deep customer insight, market intelligence, and technology foresight into executive-level product investment decisions.
  7. Quality and regulatory leadership — architect enterprise quality management systems for MEMS devices, engaging with regulatory bodies and major customers to define acceptance standards and certification pathways.
  8. Thought leadership and external representation — represent the organization's MEMS expertise at industry conferences, standards bodies, and with government research sponsors, shaping the broader field.
  9. Talent development and succession — design competency development pathways and mentoring structures that build the next generation of senior MEMS engineers across the organization.
  10. Technology partnership and ecosystem development — forge strategic alliances with research institutions, foundries, and supply chain partners to extend the organization's microsystems design and manufacturing capabilities.

AI-at-Work Competency Framework

Sources:Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab.Jadhav & Danve, 2026Skill Automation Feasibility Index — Jadhav & Danve, 2026 (arXiv:2604.06906). Opens in new tab.WEF Skills TaxonomyWEF Skills Taxonomy 2021 — Building a Common Language for Skills at Work. Opens in new tab.
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Authoritative source data identified for 998 occupations

How a worker at each mastery level uses, directs, and evaluates AI tools in this occupation. Each statement cites its evidence inline; click a citation chip to verify the source.

Emerging
  1. AI-assisted schematic review — uses LLM tools to surface potential errors in MEMS component layouts and bills of materials by submitting design documents for automated review, then verifies findings against process constraints manually Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab..
  2. Technical document drafting — delegates first-draft generation of formal engineering documents such as materials specifications and packaging requirements to an AI assistant, then edits for accuracy and compliance Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab. WEF Skills TaxonomyWEF Skills Taxonomy 2021 — Building a Common Language for Skills at Work. Opens in new tab..
Developing
  1. Simulation parameter exploration — directs AI tools to sweep cost, performance, and process-capability variables across candidate MEMS device designs in modeling software, interpreting the output to prioritize configurations for hands-on validation Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab. Jadhav & Danve, 2026Skill Automation Feasibility Index — Jadhav & Danve, 2026 (arXiv:2604.06906). Opens in new tab..
  2. Failure-mode summarization — hands off structured failure or reliability datasets to an AI assistant for pattern identification, then applies domain expertise to confirm root causes and recommend corrective actions Jadhav & Danve, 2026Skill Automation Feasibility Index — Jadhav & Danve, 2026 (arXiv:2604.06906). Opens in new tab. WEF Skills TaxonomyWEF Skills Taxonomy 2021 — Building a Common Language for Skills at Work. Opens in new tab..
  3. Project schedule drafting — uses AI to generate initial research or development project timelines and resource estimates for MEMS programs, then refines milestones based on fab-process knowledge and stakeholder input Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab..
Proficient
  1. Multi-constraint design synthesis — orchestrates AI agents to reconcile competing schematic and physical layout constraints—process, functional, and package—across integrated MEMS assemblies, retaining authorship of all design decisions Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab. Jadhav & Danve, 2026Skill Automation Feasibility Index — Jadhav & Danve, 2026 (arXiv:2604.06906). Opens in new tab..
  2. Yield-improvement analysis — delegates statistical yield data preprocessing and anomaly flagging to an AI pipeline, then leads the engineering interpretation and process-adjustment decisions that require active listening and cross-team coordination Jadhav & Danve, 2026Skill Automation Feasibility Index — Jadhav & Danve, 2026 (arXiv:2604.06906). Opens in new tab. WEF Skills TaxonomyWEF Skills Taxonomy 2021 — Building a Common Language for Skills at Work. Opens in new tab..
  3. Rapid literature triangulation — directs AI tools to synthesize emerging MEMS fabrication research into ranked design recommendations, saving substantial review time while critically evaluating citation accuracy against primary sources Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab..
Advanced
  1. End-to-end AI workflow orchestration — architects multi-step AI-assisted pipelines spanning MEMS simulation, schematic generation, reliability analysis, and documentation, calibrating the level of AI autonomy at each stage to match task complexity and risk Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab. Jadhav & Danve, 2026Skill Automation Feasibility Index — Jadhav & Danve, 2026 (arXiv:2604.06906). Opens in new tab. WEF Skills TaxonomyWEF Skills Taxonomy 2021 — Building a Common Language for Skills at Work. Opens in new tab..
  2. Computational thinking leadership — defines team-wide standards for when AI-generated design outputs require human override versus acceptance, grounded in an occupation-level understanding of automation feasibility limits for complex MEMS problem-solving Jadhav & Danve, 2026Skill Automation Feasibility Index — Jadhav & Danve, 2026 (arXiv:2604.06906). Opens in new tab. WEF Skills TaxonomyWEF Skills Taxonomy 2021 — Building a Common Language for Skills at Work. Opens in new tab..
Evidence pack
AEI usage
Task observations: 256
Augment share: 25.6%
Time saved: 79.5%
AI autonomy: 3.35
SAFI positioning
Top skill: Active Listening
Score: 42.2 / 100
Quadrant: Q2_ai_augmented
precision: exact
WEF cluster
Computational Thinking
computational_thinking
Sources:Anthropic Economic IndexAnthropic Economic Index — release_2026_03_24. Opens in new tab.WEF Skills TaxonomyWEF Skills Taxonomy 2021 — Building a Common Language for Skills at Work. Opens in new tab.Jadhav & Danve, 2026Skill Automation Feasibility Index — Jadhav & Danve, 2026 (arXiv:2604.06906). Opens in new tab.

Pathsmith Durable Skills Framework

Sources:Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
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Ten durable-skill domains mapped to four proficiency/role levels for each occupation. Each statement is aligned to the Pathsmith taxonomy, derived from trusted grounding data and mapped to occupation-specific O*NET tasks and skills.

1Communication9 statements
Emerging
  1. MEMS schematic documentation — drafts basic engineering schematics and bills of materials using standard notation for internal review Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Technical vocabulary acquisition — applies foundational MEMS and microelectronics terminology when writing design notes and lab reports O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Developing
  1. Cross-functional design communication — conveys MEMS device performance characteristics and process constraints to adjacent engineering teams with increasing clarity Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Engineering report writing — composes structured reports on failure analyses, yield improvement findings, and reliability studies for project stakeholders O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Applying
  1. Formal documentation authorship — produces complete engineering document sets including schematics, material specifications, packaging requirements, and quality control protocols that meet regulatory and project standards Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Stakeholder requirements translation — elicits and interprets customer requirements and market data through structured dialogue, then communicates findings into MEMS product design proposals O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  3. Training communication — presents MEMS operating characteristics and fabrication process experience to junior engineers and designers through structured knowledge-transfer sessions O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Exceeding
  1. Cross-disciplinary technical briefing — leads executive and customer-facing presentations on MEMS technology capabilities, tradeoff analyses, and roadmaps, adapting depth and terminology to mixed technical and non-technical audiences Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Standards-setting documentation — establishes organization-wide templates and guidelines for MEMS engineering documentation, ensuring consistency, traceability, and compliance across projects Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
2Leadership8 statements
Emerging
  1. Project task ownership — accepts responsibility for discrete MEMS design subtasks, such as component layout or simulation runs, and delivers them within agreed timelines Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Peer knowledge sharing — volunteers MEMS process insights during team meetings, contributing to collective understanding without requiring direction Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Developing
  1. Research project coordination — assists in planning and scheduling MEMS R&D activities, tracking milestones and flagging risks to project leads O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Design review facilitation — leads focused technical reviews of MEMS schematics or simulation outputs, soliciting input from team members and synthesizing feedback Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Applying
  1. Engineering project leadership — independently plans, schedules, and manages MEMS research or development projects from concept through documentation, coordinating resources across mechanical, electrical, and materials disciplines Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Mentorship of junior engineers — guides early-career microsystems engineers through MEMS design workflows, simulation tools, and documentation standards with structured coaching Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Exceeding
  1. Technical strategy influence — shapes organizational MEMS technology roadmaps by synthesizing market data, process capability assessments, and engineering insights into actionable product development strategies Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Cross-organizational program leadership — directs multi-team MEMS development programs spanning design, fabrication, testing, and commercialization, holding accountability for schedule, budget, and technical outcomes Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
3Metacognition8 statements
Emerging
  1. Skill-gap identification — recognizes personal limitations in MEMS simulation software or fabrication process knowledge and seeks targeted learning resources Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Design reflection — reviews own schematic drafts against project requirements to identify errors before formal submission Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Developing
  1. Learning strategy calibration — selects appropriate study methods—literature review, simulation practice, or mentorship—based on the specific MEMS knowledge gap being addressed Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Error pattern recognition — identifies recurring mistakes in own MEMS modeling or documentation work and adjusts workflows to prevent repetition Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Applying
  1. Process knowledge self-audit — systematically evaluates own understanding of MEMS fabrication constraints—such as process design rules or packaging limits—against project demands and targets gaps with deliberate practice Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Decision-quality monitoring — tracks the outcomes of own engineering judgments across reliability analyses and design proposals to build calibrated confidence in technical decision-making Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Exceeding
  1. Cognitive bias mitigation in design — recognizes and corrects for anchoring or confirmation bias in MEMS feasibility assessments and failure analyses, modeling reflective reasoning practices for the team Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Organizational learning facilitation — institutionalizes post-project retrospectives that surface systemic knowledge gaps in MEMS engineering practices and translates findings into training and process improvements Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
4Critical Thinking9 statements
Emerging
  1. Simulation output interpretation — identifies basic discrepancies between MEMS simulation results and expected performance benchmarks and raises questions for investigation Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Design constraint recognition — distinguishes between process, functional, and packaging constraints when evaluating initial MEMS component layout options O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Developing
  1. Trade-off analysis — evaluates cost, performance, and process capability trade-offs across competing MEMS device design candidates using simulation and modeling software Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Failure mode identification — applies systematic reasoning to isolate probable causes of MEMS device failures from experimental data and process records O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Applying
  1. Reliability and yield analysis — conducts structured quantitative analyses of MEMS device failure modes, reliability margins, and yield detractors, producing actionable design or process improvement recommendations Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Requirement validation — critically examines customer requirements and market data against physical and process feasibility constraints before committing to a MEMS product design proposal Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  3. Systems-level tradeoff reasoning — evaluates how changes to a MEMS component's material, geometry, or packaging propagate through system-level performance, cost, and manufacturability O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Exceeding
  1. Analytical framework development — constructs novel evaluation frameworks for assessing MEMS technology readiness, integrating physics-based modeling, statistical yield analysis, and market viability criteria Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Cross-domain assumption challenging — interrogates assumptions embedded in inherited MEMS design architectures, identifying constraints that are process-historical rather than physically necessary and proposing alternatives Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
5Collaboration8 statements
Emerging
  1. Multidisciplinary team participation — contributes MEMS-specific technical input to cross-functional design reviews involving electrical, mechanical, and process engineers Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Documentation co-authoring — collaborates with team members to compile accurate bills of materials and component specifications from distributed sources O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Developing
  1. Interface coordination — negotiates MEMS component interface definitions with integrated circuit and packaging engineers to ensure compatibility across subsystem boundaries Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Shared simulation workflows — co-develops and maintains shared MEMS simulation models and parameter libraries with team members to ensure consistent analysis baselines O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Applying
  1. Integrated development collaboration — works within multidisciplinary product development teams to align MEMS design, fabrication process, and quality assurance activities toward shared program milestones Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Customer collaboration — partners with customer technical teams to refine MEMS device requirements, translating application-specific needs into engineering specifications that drive design decisions O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Exceeding
  1. Collaboration architecture — structures team workflows, shared repositories, and communication norms for distributed MEMS engineering teams, reducing integration friction and accelerating design iteration cycles Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. External partnership brokering — establishes and manages technical collaborations with foundry partners, research institutions, and suppliers to expand the organization's MEMS process and materials capabilities Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
6Character8 statements
Emerging
  1. Documentation integrity — records simulation inputs, outputs, and assumptions accurately and completely, avoiding selective reporting of favorable results Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Professional accountability — acknowledges and corrects own errors in MEMS schematics or specifications promptly when identified during review Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Developing
  1. Ethical design practice — flags potential safety or reliability risks identified in MEMS device analyses even when findings create schedule or cost pressure Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Quality commitment — applies quality control protocols and process control checklists diligently on every project task, not only on high-visibility deliverables O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Applying
  1. Responsible engineering judgment — makes and defends conservative technical decisions under customer or schedule pressure when reliability or yield data warrants caution Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Transparent stakeholder reporting — communicates adverse test results, yield issues, or failure analysis findings to project stakeholders accurately and without minimization Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Exceeding
  1. Ethical culture modeling — establishes norms of transparency, intellectual honesty, and safety-first decision-making within MEMS engineering teams through consistent personal example and explicit expectation-setting Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Professional standards stewardship — contributes to industry or organizational standards bodies, ensuring that MEMS engineering practices reflect current knowledge of reliability, safety, and sustainability Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
7Creativity8 statements
Emerging
  1. Alternative layout exploration — generates multiple candidate physical layouts for a MEMS component rather than defaulting to the first viable configuration Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Analogical problem framing — applies design patterns from adjacent microelectronics or MEMS domains as starting points for novel device concept generation Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Developing
  1. Novel device concept proposal — develops original MEMS device design proposals that address identified market needs or customer requirements through unconventional transduction mechanisms or geometries Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Process innovation ideation — proposes modifications to MEMS fabrication process sequences that could improve yield or enable new device functionality O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Applying
  1. Creative simulation-driven design — iterates MEMS designs through creative hypothesis-test cycles using modeling software to explore non-obvious parameter spaces and discover performance-enhancing configurations Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Constraint-driven invention — generates viable MEMS product designs that achieve performance targets within tight process, cost, or packaging constraints by reframing limitations as design variables Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Exceeding
  1. Platform architecture innovation — conceives novel MEMS device platforms or fabrication paradigms that open new product categories or application markets, driving organizational competitive differentiation Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Creative culture cultivation — structures design sprints, technology scouting, and prototyping norms that systematically generate and evaluate unconventional MEMS technology ideas across the engineering team Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
8Growth Mindset8 statements
Emerging
  1. Technical feedback acceptance — receives critique on MEMS schematic or simulation work during design reviews without defensiveness and incorporates suggestions into revisions Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Emerging technology curiosity — proactively reads literature on new MEMS fabrication techniques and device architectures beyond current project requirements Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Developing
  1. Failure-driven learning — extracts actionable design or process lessons from MEMS device failures or low-yield fabrication runs and applies them to subsequent design iterations Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Skill stretch pursuit — voluntarily takes on MEMS project tasks that require developing competence in unfamiliar simulation tools, materials systems, or packaging methods Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Applying
  1. Iterative performance improvement — treats each MEMS design cycle as a structured learning opportunity, documenting hypotheses, results, and revised understanding to accelerate mastery of complex device physics Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Constructive challenge seeking — proposes to lead technically ambitious MEMS development projects where success requires acquiring new capabilities, viewing the difficulty as the learning mechanism Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Exceeding
  1. Team learning architecture — designs project structures and retrospective practices that systematically convert MEMS engineering setbacks into organizational knowledge, reducing repeat failures across the team Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Growth culture evangelism — publicly models intellectual humility and continuous learning by sharing own development experiences and actively dismantling perfectionism norms that suppress experimentation in MEMS design teams Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
9Mindfulness8 statements
Emerging
  1. Attention management in precision tasks — maintains focused attention during detailed MEMS layout work, recognizing and recovering from distraction before errors propagate Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Stress recognition — identifies personal stress signals during high-pressure MEMS tape-out or deadline periods and applies basic self-regulation strategies to maintain work quality Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Developing
  1. Deliberate review practice — pauses before submitting MEMS documentation or simulation results to conduct a structured self-review, reducing error propagation into downstream processes Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Emotion regulation in design conflict — manages frustration or urgency responses during technical disagreements about MEMS design choices to keep discussions productive Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Applying
  1. Intentional decision-making under uncertainty — applies deliberate, unhurried reasoning when evaluating MEMS design options under schedule pressure, resisting the impulse to anchor on the first feasible solution Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Present-moment quality awareness — monitors own cognitive state during complex MEMS failure analyses to detect fatigue-driven reasoning shortcuts and adjusts pacing or approach accordingly Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Exceeding
  1. Team attention environment design — structures MEMS engineering workflows, meeting cadences, and communication norms to minimize cognitive interruption and protect deep-work capacity across the team Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Mindful leadership under ambiguity — maintains composed, deliberate decision-making during high-stakes MEMS program crises—yield collapses, foundry failures, customer escalations—modeling regulated response for the broader team Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
10Fortitude8 statements
Emerging
  1. Persistence through simulation failure — continues iterating MEMS simulation parameters and boundary conditions after repeated non-convergence or physically implausible results rather than abandoning the analysis Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Uncertainty tolerance — proceeds with MEMS design work in the presence of incomplete process characterization data, making explicit assumptions and flagging them for validation Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Developing
  1. Sustained effort on long-cycle projects — maintains consistent technical output quality across multi-month MEMS development programs that involve extended periods without visible progress Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Fabrication setback recovery — resumes MEMS device development productively after a failed fabrication run, conducting root-cause analysis and replanning without extended loss of momentum Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
Applying
  1. Technical courage in design advocacy — defends a MEMS design recommendation backed by rigorous analysis against pressure from stakeholders favoring expedient but technically inferior alternatives Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab. O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
  2. Resilience through program adversity — sustains engineering quality and team morale during MEMS program crises—such as foundry process changes or critical yield failures—while executing recovery plans Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Exceeding
  1. Courage in organizational challenge — challenges entrenched MEMS design practices or organizational risk-aversion when evidence supports a superior technical approach, accepting professional risk in service of better outcomes Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
  2. Adversity leadership modeling — guides engineering teams through sustained technical adversity in high-stakes MEMS programs, demonstrating and reinforcing resilient problem-solving behavior that preserves team cohesion and technical rigor Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.
Sources:Pathsmith Durable SkillsPathsmith Durable Skills Framework — America Succeeds + CompTIA. Opens in new tab.O*NET v30.2O*NET Resource Center — Occupational Information Network, v30.2 (Sept 2025). Opens in new tab.
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Source anchors that ground each statement

Related titles
Applications Engineer · Arrhythmia Engineer · Control Systems Engineer · Design Engineer · Device Engineer · Engineer · GaN Device Engineer (Gallium Nitride Device Engineer) · Medical Device Engineer · MEMS Device Scientist (Microelectromechanical Systems Device Scientist) · MEMS Engineer (Microelectromechanical Systems Engineer) · MEMS Integration Engineer (Microelectrical Mechanical Integration Engineer) · MEMS Process Engineer (Microelectromechanical Systems Process Engineer)
RAPIDS apprenticeships
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O*NET skills
Active ListeningCritical ThinkingReading ComprehensionComplex Problem SolvingWritingSystems AnalysisJudgment and Decision MakingMonitoringSpeakingScienceActive LearningSystems EvaluationTime ManagementMathematicsOperations MonitoringLearning StrategiesInstructingQuality Control AnalysisSocial PerceptivenessCoordinationNegotiationService OrientationOperations Analysis
Knowledge domains
Computers and ElectronicsEngineering and TechnologyMathematicsPhysicsDesignEnglish LanguageProduction and ProcessingMechanical
Abilities
Written ComprehensionOral ComprehensionInductive ReasoningOral ExpressionDeductive ReasoningWritten ExpressionProblem SensitivityInformation OrderingFluency of IdeasVisualization
Work styles
Attention to DetailInnovationDependabilityIntellectual CuriosityCautiousnessAchievement Orientation
Technology
Graphics or photo imaging softwareAnalytical or scientific softwareOperating system softwareComputer aided design CAD softwareDevelopment environment softwareObject or component oriented development softwareProgram testing softwareWeb page creation and editing softwareFile versioning softwareWeb platform development software
Tasks · seed anchors for statements
  1. Create schematics and physical layouts of integrated microelectromechanical systems (MEMS) components or packaged assemblies consistent with process, functional, or package constraints.
  2. Investigate characteristics such as cost, performance, or process capability of potential microelectromechanical systems (MEMS) device designs, using simulation or modeling software.
  3. Create or maintain formal engineering documents, such as schematics, bills of materials, components or materials specifications, or packaging requirements.
  4. Conduct analyses addressing issues such as failure, reliability, or yield improvement.
  5. Plan or schedule engineering research or development projects involving microelectromechanical systems (MEMS) technology.
  6. Propose product designs involving microelectromechanical systems (MEMS) technology, considering market data or customer requirements.
  7. Develop formal documentation for microelectromechanical systems (MEMS) devices, including quality assurance guidance, quality control protocols, process control checklists, data collection, or reporting.
  8. Communicate operating characteristics or performance experience to other engineers or designers for training or new product development purposes.
CIP education codes
14.010114.010314.040114.070214.080214.080514.100314.100414.110114.120114.130114.240114.270114.330114.340114.360114.380114.390114.400114.410114.420114.430114.440114.450114.470114.480114.480214.489914.999915.150215.160151.2312

Sources: O*NET v30.2 (CC BY 4.0), SkillsCrosswalk.com, LER.me, Anthropic Economic Index, SAFI (Jadhav & Danve, 2026), WEF Skills Taxonomy 2021, Pathsmith Durable Skills Framework. © 2026 EBSCOed.