Engineering & Architecture · Updated Aug 2026

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.

JVS 2.0.0-phase4b
AI Exposure
56/100
Moderate

How much of this occupation’s work can be materially affected by current AI systems.

Replacement Risk
50/100
Moderate

How likely exposure is to translate into reduced human demand.

Includes provisional estimates for AI adoption pressure and labour-market resilience. How this is measured

Evidence quality
Confidence81/100
Task coverage85%

Confidence reflects task coverage, mapping and capability-evidence quality, and how much of the score rests on provisional inputs.

Task-level evidence

What is driving the score?

Occupation scores are built from the task mix—not a single prediction about a job title.

JVS 2.0.0-phase4b
TaskImportanceAI impactExposure
Test performance of electromechanical assemblies, using test instruments such as oscilloscopes, electronic voltmeters, or bridges.High
74
Read blueprints, schematics, diagrams, or technical orders to determine methods and sequences of assembly.High
74
Prepare written documentation of electromechanical test results.High
74
Verify part dimensions or clearances to ensure conformance to specifications, using precision measuring instruments.Medium
74
Install or program computer hardware or machine or instrumentation software in microprocessor-based systems.High
45
Select electromechanical equipment, materials, components, or systems to meet functional specifications.Medium
69
Operate, test, or maintain robotic equipment used for green production applications, such as waste-to-energy conversion systems, minimization of material waste, or replacement of human operators in dangerous work environments.Medium
67
Produce electrical, electronic, or mechanical drawings or other related documents or graphics necessary for electromechanical design, using computer-aided design (CAD) software.Medium
71
Develop or implement programs related to the environmental impact of engineering activities.Medium
74
Establish and maintain inventory, records, or documentation systems.Medium
73
Specify, coordinate, or conduct quality-control or quality-assurance programs and procedures.Medium
73
Analyze engineering designs of logic or digital circuitry, motor controls, instrumentation, or data acquisition for implementation into new or existing automated, servomechanical, or other electromechanical systems.Medium
73
Select and use laboratory, operational, or diagnostic techniques or test equipment to assess electromechanical circuits, equipment, processes, systems, or subsystems.Medium
70
Determine whether selected electromechanical components comply with environmental standards and regulations.Medium
75
Operate metalworking machines to fabricate housings, jigs, fittings, or fixtures.Medium
69
Conduct statistical studies to analyze or compare production costs for sustainable and nonsustainable designs.Medium
73
Translate electromechanical drawings into design specifications, applying principles of engineering, thermal or fluid sciences, mathematics, or statistics.Medium
73
Install electrical or electronic parts and hardware in housings or assemblies, using soldering equipment and hand tools.High
23
Modify, maintain, or repair electrical, electronic, or mechanical components, equipment, or systems to ensure proper functioning.High
23
Align, fit, or assemble component parts, using hand or power tools, fixtures, templates, or microscopes.Medium
22
Repair, rework, or calibrate hydraulic or pneumatic assemblies or systems to meet operational specifications or tolerances.Medium
23
Fabricate or assemble mechanical, electrical, or electronic components or assemblies.Medium
17
Most exposed

Where AI can do more

Routine, digitized, and highly repeatable tasks face the greatest pressure.

  1. Determine whether selected electromechanical components comply with environmental standards and regulations.75
  2. Test performance of electromechanical assemblies, using test instruments such as oscilloscopes, electronic voltmeters, or bridges.74
  3. Read blueprints, schematics, diagrams, or technical orders to determine methods and sequences of assembly.74
  4. Prepare written documentation of electromechanical test results.74
Hardest to automate

Where people still matter

These tasks score lowest on automation feasibility—physical presence, judgement, accountability and real-world variability all resist end-to-end automation.

  1. Fabricate or assemble mechanical, electrical, or electronic components or assemblies.01
  2. Align, fit, or assemble component parts, using hand or power tools, fixtures, templates, or microscopes.02
  3. Install electrical or electronic parts and hardware in housings or assemblies, using soldering equipment and hand tools.03
  4. Modify, maintain, or repair electrical, electronic, or mechanical components, equipment, or systems to ensure proper functioning.04
  5. Repair, rework, or calibrate hydraulic or pneumatic assemblies or systems to meet operational specifications or tolerances.05
Where else this work leads

Related occupations

Occupations O*NET links to this one. Relatedness reflects shared work, not a claim that these roles are safer.

See all rankings →
Beyond AI capability

Adoption and labour-market outlook

Structural factors are kept separate from raw capability so you can see what actually resists automation. Adoption pressure and labour-market resilience are still provisional models—25% of this occupation’s replacement-risk weight rests on them.

Human dependency67
Physical dependency54
Adoption pressure59
Labour-market resilience63
Methodology & sources

O*NET 30.3 occupational data interpreted through the JobsVsAI capability, automation and structural-constraint models.

Confidence81/100
CalculatedAug 21, 2026
Read methodology →