Occupation · SOC 17-3024
Electro-Mechanical and Mechatronics Technologists and Technicians
Operate, test, maintain, or adjust unmanned, automated, servomechanical, or electromechanical equipment. May operate unmanned submarines, aircraft, or other equipment to observe or record visual information at sites such as oil rigs, crop fields, buildings, or for similar infrastructure, deep ocean exploration, or hazardous waste removal. May assist engineers in testing and designing robotics equipment.
Median wage
$70,760
$47,770–$109,580
Projected growth
+0.7%
Slower than average
Annual openings
20
per year
Employed (US)
14,680
Job Zone 3
Typical preparation
Medium preparation
Stackable credential programs
775 mapped
Core skills
Operations MonitoringTroubleshootingRepairingMonitoringQuality Control AnalysisCritical ThinkingOperation and ControlJudgment and Decision Making
Knowledge areas
Computers and ElectronicsMechanicalEngineering and TechnologyEnglish LanguageProduction and Processing
Technology & tools
Project management softwareComputer aided design CAD softwareAnalytical or scientific softwareObject or component oriented development softwareFacilities management software
Representative tasks
Test performance of electromechanical assemblies, using test instruments such as oscilloscopes, elecInstall or program computer hardware or machine or instrumentation software in microprocessor-based Read blueprints, schematics, diagrams, or technical orders to determine methods and sequences of assProgram and calibrate drones for specific missions or tasks, ensuring proper functionality and performance.
Competency framework
Skill expectations by proficiency level.
emerging
Electromechanical assemblies — test basic performance using oscilloscopes and electronic voltmeters under direct technician supervision in a production or lab setting.Blueprint and schematic documents — read and interpret to determine assembly sequences under close guidance on an entry-level technician workbench.Electrical and electronic parts — install into housings using soldering equipment and hand tools following step-by-step instructions in a supervised assembly environment.Part surfaces — inspect visually for defects such as cracks, burrs, or contamination using standard inspection checklists on a light manufacturing floor.Precision measuring instruments — use calipers and micrometers to verify basic part dimensions against specification sheets under direct supervision.Computer hardware — install into microprocessor-based systems following written procedures and supervisor direction in an electromechanical lab.Mechanical and electronic components — fabricate simple subassemblies following exploded-view diagrams under technician oversight in a controlled workshop.Test instruments and hand tools — identify correct equipment for a given task and prepare them for use following posted safety and calibration protocols.Technical documentation — read work orders and maintenance logs to locate required materials and tools at the start of an assigned task.Observed system anomalies — report deviations from expected equipment behavior to a supervising technician during routine monitoring activities.
developing
Electromechanical system performance — evaluate using oscilloscopes, bridges, and electronic voltmeters with minimal oversight during scheduled production testing cycles.Electrical, electronic, and mechanical components — modify, maintain, or repair to restore proper functioning in response to standard fault conditions on the shop floor.Assembly sequences — determine independently by reading blueprints and wiring diagrams for moderately complex subassemblies in a manufacturing or field-service environment.Instrumentation software — install and configure in microprocessor-based control systems following vendor documentation and established site procedures.Component dimensions and clearances — verify using precision measuring tools and document results against engineering tolerances in a quality-control workflow.Soldered electrical connections — produce and inspect to IPC or equivalent workmanship standards while assembling units in a mid-volume production environment.Equipment malfunctions — troubleshoot using systematic diagnostic methods, applying deductive reasoning to isolate faults in electromechanical assemblies.CAD and analytical software — use to review design drawings and interpret test data when supporting engineering changes on existing equipment.Quality control analyses — perform on completed assemblies, identifying out-of-tolerance conditions and initiating corrective action through established reporting channels.Maintenance records and technical reports — write accurately to document repair actions, parts used, and test results in a department database or ERP system.
proficient
Complex electromechanical assemblies — test and validate across full performance envelopes using advanced instrumentation, interpreting results against design specifications autonomously.Non-routine equipment failures — troubleshoot and resolve using inductive and deductive reasoning across integrated mechanical, electrical, and electronic subsystems in a production or field environment.PLC and embedded control systems — program, tune, and validate using industrial control and object-oriented development software to meet operational performance requirements.Precision fabrication and assembly — execute for mechanical, electrical, and electronic components to tight tolerances, selecting appropriate processes and tools without supervision.Engineering drawings and technical orders — interpret for novel or complex configurations and communicate findings to engineering staff during design-review or change-control meetings.Preventive and corrective maintenance programs — develop and execute for electromechanical equipment fleets, using ERP and facilities-management software to schedule and track activities.Systems evaluation — assess overall electromechanical system health, identify performance degradation trends, and recommend design or process improvements to engineering teams.Cross-functional technical problems — resolve through critical thinking and complex problem-solving, coordinating with design, manufacturing, and quality stakeholders to implement durable solutions.New technologies and tools — evaluate through active learning, assessing suitability for adoption into existing electromechanical processes in a technology-driven production facility.Technical standards and inspection criteria — apply rigorously during quality-control audits of assemblies, ensuring full conformance to customer and regulatory specifications.
advanced
Departmental testing and diagnostic strategies — establish and continuously improve, setting instrumentation standards and acceptance criteria for electromechanical assembly operations across the facility.Technician teams — mentor and develop by coaching troubleshooting methods, precision measurement practices, and quality standards to build sustained organizational capability.Maintenance and reliability frameworks — design and implement for complex mechatronics equipment, driving reductions in unplanned downtime across production operations.Capital equipment and technology selections — lead evaluations, applying deep knowledge of computers, electronics, and mechanical systems to justify investment decisions for senior management.Cross-functional engineering and operations initiatives — direct at the organizational level, integrating electromechanical expertise into product development, process improvement, and quality management programs.Technical documentation systems — govern by establishing writing standards, schematic conventions, and configuration-control procedures that ensure accuracy and compliance across engineering and production teams.Organizational competency gaps — identify through systems evaluation and active listening, then design training curricula and credentialing pathways for electromechanical technician roles.Safety, quality, and regulatory requirements — champion by translating applicable standards into operational procedures and holding teams accountable for consistent adherence on the production floor.Strategic automation and control-system roadmaps — develop using industrial control, CAD, and analytical software platforms, aligning technology investments with multi-year business objectives.Organizational performance outcomes — drive by applying judgment and decision-making at the leadership level to balance cost, quality, schedule, and risk across electromechanical programs.
Also known as
67 alternate job titles map to this occupation.
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