Repair and replace tires.
U.S. Workers
106,620
Median Salary
$37,120
10-Year Growth
+5.7%
Annual Openings
15,300
Typical entry: High school diploma or equivalent
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.
Reassemble tires onto wheels.
AI: Fully automatable - Tire mounting/demounting is largely handled by automated tire machines that can reassemble tires onto wheels with minimal human intervention in many shops.
Inspect tire casings for defects, such as holes or tears.
AI: Fully automatable - Computer vision and sensor systems can reliably detect surface holes, tears, and similar defects, enabling automated casing inspections in many contexts.
Locate punctures in tubeless tires by visual inspection or by immersing inflated tires in water baths and observing air bubbles.
AI: Fully automatable - Locating tubeless leaks via visual bubble observation or pressure/sonic sensors can be fully automated using cameras and diagnostic systems that identify leak locations.
Roll new rubber treads, known as camelbacks, over tire casings and mold the semi-raw rubber treads onto the buffed casings.
AI: Fully automatable - Rolling and molding new treads onto casings is a core part of industrial retreading and is already highly automated with specialized machinery and process control.
Order replacements for tires or tubes.
AI: Fully automatable - Ordering replacement tires or tubes is a paperwork/IT task that can be fully automated by AI systems integrating inventory, suppliers, and ordering workflows.
Inflate inner tubes and immerse them in water to locate leaks.
AI: Fully automatable - Inflating tubes and submerging them to detect leaks is a repeatable testing procedure that can be fully automated with fixtures and AI-controlled equipment.
Place tire casings and tread rubber assemblies in tire molds for the vulcanization process and exert pressure to ensure good adhesion.
AI: Fully automatable - Placement of casings and tread assemblies into molds and applying pressure is already handled end-to-end by automated machinery and robotized presses in tire manufacturing, so AI/automation can fully perform this in 2025.
Raise vehicles, using hydraulic jacks.
AI: Partial - Workshop lifts can be automated, but the common task of raising vehicles using portable hydraulic jacks is a physical operation that AI cannot reliably perform autonomously in most service contexts by 2025.
Remount wheels onto vehicles.
AI: Partial - Remounting wheels requires variable physical manipulation, alignment, and lifting in unstructured environments that robots can only partially handle as of 2025.
Unbolt and remove wheels from vehicles, using lug wrenches or other hand or power tools.
AI: Partial - Unbolting and removing wheels involves force control, variable fastener conditions, and safety concerns so automation exists in controlled setups but is not universally autonomous.
Place wheels on balancing machines to determine counterweights required to balance wheels.
AI: Partial - Balancing machines automatically compute required counterweights, but the physical act of placing wheels onto the machine remains largely manual in typical shops in 2025.
Identify tire size and ply and inflate tires accordingly.
AI: Partial - Tire size/ply identification and inflation can be automated via vision/label-reading and preset inflators, but connecting, verifying, and handling variations still require human involvement.
Replace valve stems and remove puncturing objects.
AI: Partial - Replacing valve stems and removing embedded puncturing objects is delicate, variable manual work that only partial tool-assisted automation can replicate today.
Hammer required counterweights onto rims of wheels.
AI: Partial - Hammering counterweights onto rims is a forceful, impact-oriented task that robots can perform in controlled environments but is not broadly automated or adaptive in the field.
Seal punctures in tubeless tires by inserting adhesive material and expanding rubber plugs into punctures, using hand tools.
AI: Partial - Sealing tubeless punctures with plugs and adhesive requires nuanced manual manipulation and judgment that is only partially automatable as of 2025.
Glue tire patches over ruptures in tire casings, using rubber cement.
AI: Partial - Applying glue patches requires fine tactile manipulation and judgement—specialized machines can do it in controlled retread shops but general-purpose AI/robots cannot fully replace a human in all shop contexts as of 2025.
Assist mechanics and perform various mechanical duties, such as changing oil or checking and replacing batteries.
AI: Partial - Assisting mechanics and performing varied duties (oil changes, battery checks) involves diverse physical tasks and situational judgment that can be partially automated but not fully handled by AI systems in most shops yet.
Rotate tires to different positions on vehicles, using hand tools.
AI: Partial - Rotating tires is a straightforward physical task and can be mechanized in places, but hand-tool variability and vehicle differences mean AI/robots only partially automate it reliably as of 2025.
Clean and tidy up the shop.
AI: Partial - Basic cleaning (floor vacuums/sweepers) is well automated, but fully tidying a cluttered shop including sorting tools and parts still requires human dexterity and decision-making.
Buff defective areas of inner tubes, using scrapers.
AI: Partial - Buffing inner tubes demands controlled scraping and inspection; specialized machinery can assist but full automation across varied defects and tube types is not generally achieved yet.
Prepare rims and wheel drums for reassembly by scraping, grinding, or sandblasting.
AI: Partial - Surface preparation methods like sandblasting are automatable, but scraping and grinding to final fit often require human judgement and touch, so the task is only partially automatable overall.
Apply rubber cement to buffed tire casings prior to vulcanization process.
AI: Partial - Applying rubber cement is mechanically straightforward and can be done by industrial robots under AI control in factory settings, but in-field tire repair shops this remains a largely manual task and not universally fully automated by 2025.
Separate tubed tires from wheels, using rubber mallets and metal bars or mechanical tire changers.
AI: Partial - Mechanical tire changers and machines automate much of the demounting process, but separating tubed tires from wheels often still requires human intervention and nuanced force control in many shops.
Patch tubes with adhesive rubber patches or seal rubber patches to tubes, using hot vulcanizing plates.
AI: Partial - Hot-vulcanizing tube patching can be automated in controlled manufacturing environments, but the fine manipulation, variability of damaged tubes, and safety constraints mean AI systems only partially automate shop-level repair tasks by 2025.
Drive automobile or service trucks to industrial sites to provide services or respond to emergency calls.
AI: Partial - Autonomous driving systems can handle structured routes (e.g., highways, geofenced areas), but responding to varied industrial sites and emergency-call conditions involves unstructured environments and human-level judgement that prevent full automation in 2025.
Clean sides of whitewall tires.
AI: Partial - AI can specify cleaning procedures and control automated wash equipment, but detailed manual scrubbing and stain removal on whitewall tires typically still require human attention.