Inspect, test, sort, sample, or weigh nonagricultural raw materials or processed, machined, fabricated, or assembled parts or products for defects, wear, and deviations from specifications. May use precision measuring instruments and complex test equipment.
U.S. Workers
591,180
Median Salary
$47,460
10-Year Growth
0.0%
Annual Openings
69,900
Typical entry: High school diploma or equivalent
32 of 32 tasks have some AI capability
Exposure Trend
This score reflects estimated AI technical capability for tasks in this occupation. It does not predict employment changes, and it does not account for company-specific constraints, regulation, or adoption barriers.
Measure dimensions of products to verify conformance to specifications, using measuring instruments such as rulers, calipers, gauges, or micrometers.
AI: Fully automatable - Dimensional measurement is highly automatable using machine vision, coordinate-measuring machines, and digital gauges that reliably measure to specification.
Record inspection or test data, such as weights, temperatures, grades, or moisture content, and quantities inspected or graded.
AI: Fully automatable - Recording inspection and test data is straightforward to automate by connecting sensors and instruments to data-logging systems and manufacturing execution software.
Mark items with details such as grade or acceptance-rejection status.
AI: Fully automatable - Automated marking and labeling systems integrated with inspection lines can reliably mark items with grade or acceptance/rejection status.
Notify supervisors or other personnel of production problems.
AI: Fully automatable - AI can detect production problems based on sensor/quality data and automatically notify supervisors or create alerts and tickets according to defined rules and severity thresholds.
Discard or reject products, materials, or equipment not meeting specifications.
AI: Fully automatable - Automated rejection mechanisms (e.g., ejectors, diverters, robotic removal) can discard or segregate nonconforming products under AI control.
Grade, classify, or sort products according to sizes, weights, colors, or other specifications.
AI: Fully automatable - Automated vision systems and sensors combined with AI can reliably grade, classify, and sort products by size, weight, color, and other specifications in production environments.
Analyze test data, making computations as necessary, to determine test results.
AI: Fully automatable - AI can perform computations, statistical analyses, and pattern detection on test data to determine and report test results accurately and reproducibly.
Read dials or meters to verify that equipment is functioning at specified levels.
AI: Fully automatable - Computer vision and sensor integration allow AI systems to read dials and meters and verify equipment parameters reliably in most settings.
Write test or inspection reports describing results, recommendations, or needed repairs.
AI: Fully automatable - LLMs and reporting tools can generate structured test and inspection reports from logged data, including recommendations, with high consistency, though critical decisions may require human review.
Check arriving materials to ensure that they match purchase orders, submitting discrepancy reports as necessary.
AI: Fully automatable - Barcode/RFID/vision-based receiving systems combined with AI can check incoming materials against purchase orders and automatically generate discrepancy reports.
Compare colors, shapes, textures, or grades of products or materials with color charts, templates, or samples to verify conformance to standards.
AI: Fully automatable - Machine vision and surface-sensing systems can compare colors, shapes, and surface textures to charts, templates, or samples with high accuracy in controlled production environments.
Compute defect percentages or averages, using formulas and calculators.
AI: Fully automatable - Calculations of defect percentages and averages are trivial for software and AI given input data and are routinely automated in quality-control systems.
Stack or arrange tested products for further processing, shipping, or packaging.
AI: Fully automatable - Stacking and arranging for packaging is a mature, widely automated industrial task using vision-guided robots and conveyor systems in many production lines.
Monitor production operations or equipment to ensure conformance to specifications, making necessary process or assembly adjustments.
AI: Fully automatable - AI and automated control systems can continuously monitor production parameters and make process or assembly adjustments via closed-loop controls in many manufacturing contexts.
Monitor machines that automatically measure, sort, or inspect products.
AI: Fully automatable - Monitoring automated measuring/sorting/inspection machines is readily handled by AI for anomaly detection, logging, and triggering interventions.
Compute usable amounts of items in shipments.
AI: Fully automatable - Computing usable quantities in shipments is a straightforward data-processing task that can be fully automated from counts, weights, and damage reports.
Weigh materials, products, containers, or samples to verify packaging weights or ingredient quantities.
AI: Fully automatable - Weighing and verifying packaging or ingredient quantities is a sensor-driven measurement task that is routinely automated and processed by software/AI systems.
Inspect, test, or measure materials, products, installations, or work for conformance to specifications.
AI: Partial - AI systems (vision, sensors, and automated testers) can perform many standardized inspections in controlled settings but still struggle with complex, ambiguous, or highly variable tasks that require human judgment.
Read blueprints, data, manuals, or other materials to determine specifications, inspection and testing procedures, adjustment methods, certification processes, formulas, or measuring instruments required.
AI: Partial - AI can extract and summarize information from blueprints, manuals, and data and suggest procedures, but interpreting complex engineering drawings, ambiguous specifications, or applying tacit domain knowledge often still requires human expertise.
Clean, maintain, calibrate, or repair measuring instruments or test equipment, such as dial indicators, fixed gauges, or height gauges.
AI: Partial - AI can guide calibration and maintenance procedures and monitor instruments, but hands‑on cleaning, calibration tweaks, and repairs typically still require human technicians or specialized robotics.
Collect or select samples for testing or for use as models.
AI: Partial - Robots and automation can collect routine physical samples, but designing statistically representative sampling plans and selecting model examples typically requires human judgment.
Remove defects, such as chips, burrs, or lap corroded or pitted surfaces.
AI: Partial - Automated deburring and defect-removal systems exist for many repetitive tasks, but removing complex or variable defects often demands human skill and adaptability.
Make minor adjustments to equipment, such as turning setscrews to calibrate instruments to required tolerances.
AI: Partial - AI can compute required adjustments and in some cases command actuators or robots to make minor calibrations, but many small manual tweaks still rely on human operators.
Fabricate, install, position, or connect components, parts, finished products, or instruments for testing or operational purposes.
AI: Partial - Robots and fixtures can fabricate, position, and connect components in structured production settings, but varied or delicate installation tasks often need human dexterity and judgement.
Recommend necessary corrective actions, based on inspection results.
AI: Partial - AI can analyze inspection data and propose corrective actions using rules and historical data, but recommendations often require human judgment about operational constraints and safety before implementation.
Inspect or test raw materials, parts, or products to determine compliance with environmental standards.
AI: Partial - AI can analyze environmental test data and flag compliance issues, but physical sampling, some tests, and regulatory interpretation frequently require human oversight or lab automation integration.
Position products, components, or parts for testing.
AI: Partial - Positioning parts requires physical manipulation and fine dexterity—robotic systems can handle many structured cases but cannot fully replace humans across all variable environments as of 2025.
Adjust, clean, or repair products or processing equipment to correct defects found during inspections.
AI: Partial - Adjusting, cleaning, or repairing equipment often requires complex manual work and troubleshooting that AI can assist with but not fully perform in most real-world scenarios.
Interpret legal requirements, provide safety information, or recommend compliance procedures to contractors, craft workers, engineers, or property owners.
AI: Partial - AI can draft interpretations and safety recommendations but cannot reliably provide definitive legal compliance advice without human legal or regulatory oversight due to nuance and liability.
Disassemble defective parts or components, such as inaccurate or worn gauges or measuring instruments.
AI: Partial - Disassembling defective parts requires variable manual dexterity, tool use, and judgement—robots can do some repeatable disassembly but cannot fully cover all cases as of 2025.
Administer tests to assess whether engineers or operators are qualified to use equipment.
AI: Partial - AI can administer and grade knowledge- and simulation-based tests and provide remote proctoring, but cannot fully evaluate real-world hands-on equipment operation without human observation.
Inspect or test cleantech or green technology parts, products, or installations, such as fuel cells, solar panels, or air quality devices, for conformance to specifications or standards.
AI: Partial - AI-driven sensors, computer vision, and automated test rigs can detect many defects and measure performance, but complex site-specific judgments and nuanced failures often still require human expertise.