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Mechatronics Engineers

SOC 17-2199.05Job Zone 4 · Considerable Preparationv.26.05

Context coveredThis framework covers the full career arc of Mechatronics Engineers (SOC 17-2199.05) working in industrial automation, precision equipment design, robotics, and smart manufacturing environments, from supervised entry-level design and documentation tasks through executive-level strategy and organizational 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. Mechanical design documents — draft and organize for parts and subassemblies using CAD software under the direction of a senior engineer in an industrial engineering environment.
  2. Engineering specifications and standards — read and interpret to support design tasks for mechatronic components within a supervised project team.
  3. Sensor and actuator datasheets — review and summarize to assist in component selection for motion control and position-sensing applications under technical guidance.
  4. CAD models and assembly drawings — create and revise for standard mechanical parts using employer-approved templates in a manufacturing design office.
  5. Technical project files — maintain and update by logging design revisions, test results, and correspondence in a document management system under supervision.
  6. Material properties databases — consult to identify candidate materials for mechatronic system components when directed by a project engineer.
  7. Prototype test procedures — execute following established protocols and record data accurately in a controlled laboratory or production environment.
  8. Basic control logic — implement in industrial control software for simple automation sequences under close mentorship on an entry-level automation project.
  9. Engineering calculations — perform routine mathematical and physics-based computations to verify design parameters within defined scope and under review.
  10. Technical progress reports — write clearly and concisely to communicate findings and status updates to project supervisors in a multidisciplinary engineering team.
Developing
Mid-level / Established
  1. Mechanical design documents — develop independently for multi-part assemblies and finished products, ensuring dimensional accuracy and compliance with industry standards on mid-complexity industrial projects.
  2. Precision equipment designs — produce for moderately complex controlled applications, applying tolerance analysis and materials knowledge with limited oversight in an automated manufacturing environment.
  3. Automation system architectures — design for routine industrial tasks, selecting appropriate actuators, controllers, and communication protocols based on established engineering principles.
  4. Sensor and communication technologies — research, evaluate, and select for motion control and pressure-sensing subsystems, documenting justification in technical reports for peer review.
  5. Design solutions — implement and conduct structured functional tests, troubleshoot discrepancies, and iterate designs in a product development or systems integration setting.
  6. Material selection rationale — apply by systematically evaluating mechanical, thermal, and electrical properties of candidate materials to suit specific mechatronic design requirements.
  7. Mechatronic automation solutions — apply to material handling workflows, configuring and validating transfer systems for components or finished goods in a production facility.
  8. CAD and CAM software — use proficiently to generate manufacturing-ready models and toolpath programs for precision mechatronic parts in a machine shop or fabrication environment.
  9. Technical project files — manage and maintain version-controlled documentation across project milestones, ensuring traceability and regulatory compliance in an engineering department.
  10. Systems performance — monitor during commissioning and early operation, identify deviations from specification, and recommend corrective actions in an automated industrial setting.
Proficient
Senior / Expert IC
  1. Advanced precision equipment — design autonomously for high-accuracy or tightly controlled applications, integrating mechanical, electronic, and software subsystems in aerospace, robotics, or semiconductor manufacturing environments.
  2. Industrial automation system designs — engineer end-to-end, encompassing control logic, network architecture, and safety interlocks, for complex multi-station production lines without supervisory oversight.
  3. Sensor, communication, and control device selection — lead the full evaluation and specification process for sophisticated motion control and electronic communication systems across diverse project types.
  4. Mechatronic design documents — author and validate comprehensive documentation packages including drawings, BOMs, FMEAs, and interface control documents for regulatory or customer submission.
  5. Non-routine design failures and performance issues — diagnose using systematic root-cause analysis and advanced simulation tools, developing and validating corrective solutions in a production or R&D environment.
  6. Materials and component trade-off analyses — conduct at full system scope, balancing cost, performance, manufacturability, and lifecycle considerations for novel mechatronic product lines.
  7. Automated material transfer systems — design and commission, optimizing throughput, reliability, and safety for complex logistics or assembly automation in industrial facilities.
  8. Cross-domain system evaluations — perform to assess whether integrated mechanical, electrical, and software systems meet performance targets, leading structured verification and validation campaigns.
  9. Object-oriented and embedded software solutions — develop and integrate for real-time control applications, applying software engineering best practices within mechatronic product development cycles.
  10. Technical knowledge — apply through active learning of emerging automation technologies, independently synthesizing scientific literature and standards to inform design decisions on leading-edge projects.
Advanced
Lead / Principal / Executive
  1. Mechatronic engineering strategy — define and champion across the organization, setting technical direction for automation, precision systems, and product innovation to align with long-term business objectives.
  2. Engineering design frameworks and standards — establish and govern for mechanical, control, and embedded software development, ensuring consistency, quality, and compliance across multiple concurrent programs.
  3. Complex system architectures for industrial automation — conceive and approve at enterprise scale, guiding cross-functional teams through requirements definition, architecture trade studies, and final design decisions.
  4. Engineering talent and capability — develop by mentoring junior and mid-level mechatronics engineers, designing professional development pathways and technical training programs within the organization.
  5. Advanced research initiatives — lead by directing applied research into emerging sensor technologies, AI-driven control, and smart manufacturing systems that expand organizational competitive advantage.
  6. Organizational automation roadmaps — create and present to executive leadership, translating mechatronic engineering capabilities into capital investment recommendations and operational improvement plans.
  7. Cross-functional project portfolios — oversee across engineering, manufacturing, and supply chain, resolving systemic technical risks and resource conflicts to ensure on-time, on-budget delivery.
  8. Industry standards and best practices — influence by contributing to external technical committees, publishing findings, and representing the organization in professional engineering bodies and regulatory forums.
  9. Make-or-buy and technology partnership decisions — lead by evaluating supplier capabilities, licensing opportunities, and build-versus-buy trade-offs for critical mechatronic subsystems at the enterprise level.
  10. Engineering culture of innovation and dependability — foster by institutionalizing rigorous design review processes, failure analysis disciplines, and continuous improvement practices across the engineering organization.

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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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 · Automation Application Engineer · Automation Designer · Automation Engineer · Control Integration Engineer · Control Systems Engineer · Controls Engineering Specialist · Design Engineer (Design Eng) · Electro-Mechanical Engineer · Electro-Mechanical Systems Control Engineer · Engineer · Equipment Engineer
RAPIDS apprenticeships
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O*NET skills
Judgment and Decision MakingComplex Problem SolvingReading ComprehensionWritingCritical ThinkingActive ListeningSpeakingSystems EvaluationMonitoringMathematicsSystems AnalysisOperations AnalysisTechnology DesignOperations MonitoringScienceActive LearningLearning StrategiesCoordinationInstructingOperation and ControlQuality Control AnalysisTime Management
Knowledge domains
Engineering and TechnologyDesignProduction and ProcessingMechanicalMathematicsPhysicsComputers and Electronics
Abilities
Oral ComprehensionDeductive ReasoningWritten ComprehensionProblem SensitivityOral ExpressionWritten ExpressionInductive ReasoningNear VisionInformation OrderingFluency of Ideas
Work styles
Attention to DetailInnovationDependabilityIntellectual CuriosityCautiousnessAchievement Orientation
Technology
Development environment softwareComputer aided design CAD softwareIndustrial control softwareObject or component oriented development softwareComputer aided manufacturing CAM softwareAnalytical or scientific softwareProgram testing softwareFilesystem softwareDocument management softwarePlatform interconnectivity software
Tasks · seed anchors for statements
  1. Create mechanical design documents for parts, assemblies, or finished products.
  2. Design advanced precision equipment for accurate or controlled applications.
  3. Design engineering systems for the automation of industrial tasks.
  4. Implement or test design solutions.
  5. Maintain technical project files.
  6. Identify materials appropriate for mechatronic system designs.
  7. Research, select, or apply sensors, communication technologies, or control devices for motion control, position sensing, pressure sensing, or electronic communication.
  8. Apply mechatronic or automated solutions to the transfer of materials, components, or finished goods.
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.