Repair only one system or component on a vehicle, such as brakes, suspension, or radiator.
U.S. Workers
688,840
Median Salary
$49,670
10-Year Growth
+4.2%
Annual Openings
70,000
Typical entry: Postsecondary nondegree award
26 of 26 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.
Estimate costs of vehicle repair.
AI: Fully automatable - Estimating repair costs is largely a data-driven task that modern AI systems plus parts/labor databases and photo-based assessment tools can generate accurately and repeatedly without human intervention.
Test electronic computer components in automobiles to ensure proper operation.
AI: Fully automatable - Testing and validating automotive electronic modules is highly automatable via standardized electronic test benches, firmware tools, and AI-driven result interpretation, enabling end-to-end automation in many contexts.
Conduct visual inspections of compressed natural gas fuel systems to identify cracks, gouges, abrasions, discoloration, broken fibers, loose brackets, damaged gaskets, or other problems.
AI: Fully automatable - Computer vision systems can reliably perform visual inspections for surface cracks, abrasions, discoloration and loose fittings when given adequate imagery and training, enabling full automation of the visual inspection task.
Inspect vehicles for damage and record findings so that necessary repairs can be made.
AI: Partial - Computer vision and mobile apps can detect and log many visible damages automatically, but comprehensive physical inspections (hidden damage, multi-angle access) and on-site judgement remain partially human-dependent.
Troubleshoot fuel, ignition, and emissions control systems, using electronic testing equipment.
AI: Partial - AI-driven diagnostic algorithms and OBD/test-equipment interpretation can narrow faults and guide testing, but some hands-on testing procedures and nuanced judgment in the field still require technicians.
Repair, overhaul, or adjust automobile brake systems.
AI: Partial - Diagnosis and step-by-step guidance for brake overhaul can be automated, yet the physical disassembly, machining, and reassembly work remains largely manual.
Repair or replace defective ball joint suspensions, brake shoes, or wheel bearings.
AI: Partial - AI can diagnose wear and guide replacement procedures, but the mechanical removal and installation of suspension and bearing components still require hands-on skilled labor.
Align wheels, axles, frames, torsion bars, and steering mechanisms of automobiles, using special alignment equipment and wheel-balancing machines.
AI: Partial - Wheel-alignment and balancing machines are largely automated and software-driven, but full alignment of frames/steering with the required mechanical adjustments and lifts still needs human setup and intervention in most shops.
Tune automobile engines to ensure proper and efficient functioning.
AI: Partial - Engine tuning (ECU mapping, sensor calibration) is increasingly automated by software, but complete tuning that includes mechanical adjustments and road-testing still relies on human expertise.
Repair, replace, or adjust defective fuel injectors, carburetor parts, and gasoline filters.
AI: Partial - AI can diagnose injector and fuel-system faults and prescribe procedures, but physically removing, cleaning/replacing and adjusting fuel injectors or carburetor parts is still a manual task.
Rebuild, repair, or test automotive fuel injection units.
AI: Partial - AI can guide testing and calibration and control bench equipment for fuel injection units, but full autonomous rebuild/repair in varied shop conditions remains manual or human-supervised as of 2025.
Change spark plugs, fuel filters, air filters, and batteries in hybrid electric vehicles.
AI: Partial - Routine replacement tasks (spark plugs, filters, batteries) can be guided or partially executed by automated tools, but hybrid-specific safety, heavy battery handling and variable vehicle layouts prevent full autonomous automation broadly by 2025.
Diagnose and replace or repair engine management systems or related sensors for flexible fuel vehicles (FFVs) with ignition timing, fuel rate, alcohol concentration, or air-to-fuel ratio malfunctions.
AI: Partial - AI diagnostics can identify sensor and engine-management faults in FFVs and prescribe repairs, but the physical replacement/repair and validation steps still require human technicians or specialized robotic systems not widely deployed by 2025.
Replace hydraulically assisted systems with electric-powered systems, such as power steering pumps or air conditioning compressors, to improve fuel economy.
AI: Partial - AI can design, plan and simulate conversions from hydraulic to electric systems, but the hands-on mechanical integration, safety validation and vehicle-specific calibration prevent full autonomous execution in typical shops by 2025.
Service or repair butane gas, ethanol, methane, or other alternative or biofuel systems.
AI: Partial - AI can provide diagnostics, repair procedures, parts sourcing, and supervision/augmentation for technicians but cannot reliably perform the hazardous, hands‑on servicing and certification tasks autonomously by 2025.
Install or repair air conditioners and service components, such as compressors, condensers, and controls.
AI: Partial - AI can diagnose HVAC faults and manage controls and refrigerant-handling tools, but complex installation/repair of compressors, condensers and sealed systems still requires skilled human technicians and regulated handling.
Service internal combustion engine systems for hybrid electric vehicles.
AI: Partial - AI tools can diagnose ICE problems in hybrid vehicles, generate repair steps, and control some shop equipment, but physical disassembly, inspection and repair remain manual and safety‑critical tasks.
Install, adjust, or repair hydraulic or electromagnetic automatic lift mechanisms used to raise and lower automobile windows, seats, and tops.
AI: Partial - Diagnosis and some adjustment of window/seat/top actuators can be automated, yet the varied mechanical disassembly, precise fitting and confined-space work make full autonomous installation/repair uncommon in 2025.
Diagnose and repair regenerative braking systems or hydraulic systems in hybrid vehicles.
AI: Partial - AI can analyze sensor/log data and guide diagnostics or software fixes for regenerative braking and hydraulics, yet actual mechanical repairs and pressure‑sensitive work require human technicians or specialized robotics not widely deployed by 2025.
Repair or rebuild clutch systems.
AI: Partial - AI can diagnose clutch issues, provide procedures and assist with tooling, but the heavy mechanical disassembly/reassembly and nuanced judgment involved in rebuilding clutches remain largely manual.
Repair or replace automobile leaf springs.
AI: Partial - Replacement/repair of leaf springs requires heavy lifting, alignment and vehicle-specific adjustments that AI can plan or assist with but not fully perform across typical garages by 2025.
Service biodiesel fuel tanks for algae or sludge accumulation by cleaning, changing filters, or adding algaecides.
AI: Partial - AI can detect contamination, recommend cleaning protocols and chemical treatments and optimize maintenance schedules, but the physical cleaning, filter replacement and safe handling of biodiesel tanks remain manual/hazardous tasks.
Replace defective mufflers and tailpipes.
AI: Partial - Muffler and tailpipe replacement is straightforward and amenable to robotic tooling in controlled settings, but corrosion variability, access and welds mean widespread full automation is not yet common.
Inspect propane or natural gas high-pressure tanks, piping, or pressure regulators.
AI: Partial - AI coupled with sensors and computer vision can assist with inspection, anomaly detection and monitoring of high‑pressure propane/NG systems, however hands‑on pressure testing, leak repair and safety interventions require trained personnel.
Convert vehicle fuel systems from gasoline to butane gas, ethanol, methane, or other alternative or biofuel systems.
AI: Partial - AI can design conversion plans, simulate fuel-system changes and generate step‑by‑step instructions, but performing complex mechanical conversions, compliance testing and certification is still principally human work.
Retrofit vehicle fuel systems with aftermarket products, such as vapor transfer devices, evaporation control devices, swirlers, lean burn devices, or friction reduction devices, to enhance combustion and fuel efficiency.
AI: Partial - AI can model performance impacts, select compatible aftermarket components and provide installation guidance, but the physical retrofitting and validation of fuel‑system modifications remain largely manual and safety‑sensitive.