Gini Loh System Tools

AI Automation Index

Will AI Replace Mechatronics Engineers?

Task-level automation exposure for Mechatronics Engineers: 23 O*NET tasks scored against their work activities, plus the simulator.

E-E-A-T Verified
Developed & audited by Gini Loh

Automation Exposure

52% weighted task index

23 of 23 tasks scored

Median Salary

$122,930 / year

BLS OEWS, May 2025 — this exact occupation

Employment Level

High

154,070 people hold this job — size, not growth

Projected 2025–35

+3.7% employment change

8,800 openings a year · BLS line item

Pay by state

BLS OEWS publishes 53 state estimates for this occupation. Each is its own survey estimate, not the national median adjusted for local prices.

$76,100 – $162,070

Highest medians

New Mexico $162,070
Alabama $152,550
District of Columbia $151,920
Virginia $148,160
Alaska $142,390

Lowest medians

Kansas $76,100
Arkansas $76,940
Puerto Rico $81,370
Nebraska $88,490
Tennessee $96,640

State figures come from the 17-2199 row in the May 2025 state panel. States where the estimate was suppressed or too small to publish are absent.

What the score is made of

Each task is mapped to its work activities, scored for AI automation potential, and weighted by how important those activities are to the job. These are the components.

Automation potential 52%

Importance-weighted mean of the scored tasks. This is the headline index.

Physical work 3%

Share of weighted tasks in hands-on or machine-operating work activities.

Judgment & influence 46%

Share in analysis, decisions, teaching, directing, advising, or caring for others.

Routine administration 10%

Share in documenting, recording, and administrative activities.

Rewritten by O*NET 0%

Share of weighted tasks O*NET rewrote in a recent update. Reported, not folded into the score.

Consequence of error 11/100 Low

O*NET's own rating of how serious an uncorrectable mistake would be here — respondents, not us. Deliberately not in the index: the score measures what AI can do with the task content, and multiplying it by stakes would be our judgment dressed as data.

Constituent Task Mix

23 tasks for this occupation, weighted by work-activity importance. Shares below are of total task weight, not task count.

High exposure (≥ 60% of the task is automatable) 31%

7 tasks

Medium exposure (≥ 35%) 65%

15 tasks

Low exposure (below 35%) 5%

1 tasks

How would you survive?

Move your week away from the high-exposure tasks and toward the ones that need judgment. The simulator recalculates the index as you shift the mix.

Simulate Upskilling →

Constituent Tasks

#16467 · Core · 50% automatable

Create mechanical design documents for parts, assemblies, or finished products.

visual inspection — Drafts equipment graphics; engineering accuracy human

Create graphical representations of mechanical equipment.
#16482 · Core · 45% automatable

Design advanced precision equipment for accurate or controlled applications.

decision support — AI drafts electromechanical designs; engineer verifies

Design electromechanical equipment or systems.
#16474 · Core · 45% automatable

Design engineering systems for the automation of industrial tasks.

decision support — AI models process systems; engineer validates feasibility

Design industrial processing systems.
#16470 · Core · 35% automatable

Implement or test design solutions.

decision support — Process improvements need physical/organizational execution

Test performance of electrical, electronic, mechanical, or integrated systems or equipment. Implement design or process improvements.
#16468 · Core · 75% automatable

Maintain technical project files.

data analysis — Maintain records systems; human owns integrity

Maintain operational records or records systems.
#23946 · Core · 63% automatable

Identify materials appropriate for mechatronic system designs.

data analysis — Estimates from specs; human validates assumptions and risk

Estimate technical or resource requirements for development or production projects. Select project materials.
#16471 · Core · 50% automatable

Research, select, or apply sensors, communication technologies, or control devices for motion control, position sensing, pressure sensing, or electronic communication.

decision support — Tool selection needs context; human decides and procures

Research engineering applications of emerging technologies. Select tools, equipment, or technologies for use in operations or projects.
#16483 · Core · 45% automatable

Apply mechatronic or automated solutions to the transfer of materials, components, or finished goods.

decision support — AI drafts electromechanical designs; engineer verifies

Design electromechanical equipment or systems.
#16465 · Core · 58% automatable

Provide consultation or training on topics such as mechatronics or automated control.

decision support — Proposes design changes; human validates feasibility

Train personnel on proper operational procedures. Provide technical guidance to other personnel. Recommend technical design or process changes to improve efficiency, quality, or performance.
#16466 · Core · 30% automatable

Oversee the work of contractors in accordance with project requirements.

interpersonal — Supervising engineers needs accountability and motivation

Supervise engineering or other technical personnel.
#16464 · Core · 82% automatable

Publish engineering reports documenting design details or qualification test results.

text generation — Document test results from provided data

Document design or operational test results.
#16479 · Core · 45% automatable

Upgrade the design of existing devices by adding mechatronic elements.

decision support — AI drafts electromechanical designs; engineer verifies

Design electromechanical equipment or systems.
#23947 · Core · 42% automatable

Create mechanical models to simulate mechatronic design concepts.

data analysis — Analyzes design/requirements data; engineer owns judgment

Analyze design or requirements information for mechanical equipment or systems. Create physical models or prototypes.
#16469 · Core · 68% automatable

Analyze existing development or manufacturing procedures and suggest improvements.

decision support — Proposes design changes; human validates feasibility

Recommend technical design or process changes to improve efficiency, quality, or performance.
#23948 · Core · 68% automatable

Determine the feasibility, costs, or performance benefits of new mechatronic equipment.

data analysis — Operational cost estimation from data

Estimate operational costs.
#16480 · Supplemental · 60% automatable

Develop electronic, mechanical, or computerized processes to perform tasks in dangerous situations, such as underwater exploration or extraterrestrial mining.

text generation — AI drafts technical methods; expert validates feasibility

Develop technical methods or processes.
#19655 · Supplemental · 39% automatable

Monitor or calibrate automated systems, industrial control systems, or system components to maximize efficiency of production.

data analysis — Efficiency metrics are digital and analyzable by AI

Monitor the productivity or efficiency of industrial operations. Calibrate scientific or technical equipment.
#16476 · Supplemental · 72% automatable

Create embedded software design programs.

text generation — Code generation strong; human architects and reviews

Develop software or computer applications.
#16475 · Supplemental · 50% automatable

Design advanced electronic control systems for mechanical systems.

decision support — AI drafts control logic; engineer validates safety

Design control systems for mechanical or other equipment.
#19654 · Supplemental · 50% automatable

Design self-monitoring mechanical systems, such as gear systems that monitor loading or condition of systems to detect and prevent failures.

decision support — AI drafts control logic; engineer validates safety

Design control systems for mechanical or other equipment.
#19653 · Supplemental · 38% automatable

Design or develop automated control systems for environmental applications, such as waste processing, air quality, or water quality systems.

decision support — AI assists design; engineering and regulatory validation human

Design environmental control systems.
#16473 · Supplemental · 45% automatable

Design, develop, or implement control circuits or algorithms for electromechanical or pneumatic devices or systems.

decision support — AI drafts electromechanical designs; engineer verifies

Design electromechanical equipment or systems.
#16481 · Supplemental · 45% automatable

Design mechatronics components for computer-controlled products, such as cameras, video recorders, automobiles, or airplanes.

decision support — AI drafts electromechanical designs; engineer verifies

Design electromechanical equipment or systems.
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Method

How this was scored

  1. 1. Tasks. O*NET task statements for this occupation, from a release whose newest record is dated 08/2026.
  2. 2. Work activities. Each task maps to 1–5 Detailed Work Activities; each activity belongs to one of 41 Generalized Work Activities that O*NET rates for importance (1–5) in this occupation.
  3. 3. Automation potential. Every work activity carries one score for how far current AI can perform it end-to-end. Tasks inherit the mean of their activities.
  4. 4. Weighting. Task weight = 0.35 + 0.65 × (importance − 1)/4, scaled by how often the task is performed and by 0.7 for Supplemental tasks. Importance is the task's own O*NET rating where it exists (18,369 of 18,838 tasks); the rest inherit their work activities' importance. The index is the weighted mean.

Check: across the 910 occupations where O*NET also rates how far machine speed sets the pace, this index moves opposite to it (Spearman ρ = -0.49). The more a job is paced by equipment, the less of its task content AI can address — the relationship you would expect if the scoring is working.

Sources · O*NET 31.0 (task records to 08/2026) · BLS OEWS May 2025 · BLS projections 2025-2035 · rubric v2.1 · tasks for O*NET, not a forecast

See the full method →

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