AP describes physical AI as machines with AI and sensors that perceive, decide and act in real-world environments. Wherever work depends on perception, hand-eye coordination and judgement, physical AI needs real-world data to learn from. It is moving from factory floors into the field and emergency response. Automotive repair, maintenance and service is next.
Where AMPS comes in: AMPS captures this kind of data in automotive workshops, during real repair, maintenance and service work, then anonymises and structures it so physical-AI models can learn skilled repair.
This is the AMPS view of how automation will reach vehicle maintenance. It is an outlook, not a forecast with dates. Each stage builds on data from the one before.
Physical AI already handles narrow, well-defined jobs on vehicles: wheels, charging, bumper repair and AI-supported diagnostics. Each one shows where broader repair automation can start.
Manual work is hard to program step by step. Increasingly, robots learn it from demonstration instead: video and motion data of a skilled person doing the task, turned into a model that predicts the right movement in each situation. The quality and variety of those demonstrations decide how well the robot performs.
A car factory repeats the same steps on the same model thousands of times. A workshop sees a different vehicle, fault and condition in every bay. That variety is exactly what a repair robot must learn, and it is rarely recorded anywhere.
Our view on how the main repair areas line up for automation. The more repetitive and standardised the task, the sooner robots can assist. The more judgement it needs, the longer people lead and AI advises.
In the deployments that exist today, robots take on the heavy, repetitive part of a job while technicians operate them and handle the rest. At Discount Tire stores, for example, RoboTire systems remove, lift and fit wheels while technicians operate them. We expect the workshop of the future to work the same way: robots for repetition and load, people for diagnosis, quality and the unexpected.
AP describes physical AI as machines with AI and sensors that perceive, decide and act in real-world environments. Wherever work depends on perception, hand-eye coordination and judgement, physical AI needs real-world data to learn from. It is moving from factory floors into the field and emergency response. Automotive repair, maintenance and service is next.
Where AMPS comes in: AMPS captures this kind of data in automotive workshops, during real repair, maintenance and service work, then anonymises and structures it so physical-AI models can learn skilled repair.
This is the AMPS view of how automation will reach vehicle maintenance. It is an outlook, not a forecast with dates. Each stage builds on data from the one before.
Physical AI already handles narrow, well-defined jobs on vehicles: wheels, charging, bumper repair and AI-supported diagnostics. Each one shows where broader repair automation can start.
Manual work is hard to program step by step. Increasingly, robots learn it from demonstration instead: video and motion data of a skilled person doing the task, turned into a model that predicts the right movement in each situation. The quality and variety of those demonstrations decide how well the robot performs.
A car factory repeats the same steps on the same model thousands of times. A workshop sees a different vehicle, fault and condition in every bay. That variety is exactly what a repair robot must learn, and it is rarely recorded anywhere.
Our view on how the main repair areas line up for automation. The more repetitive and standardised the task, the sooner robots can assist. The more judgement it needs, the longer people lead and AI advises.
In the deployments that exist today, robots take on the heavy, repetitive part of a job while technicians operate them and handle the rest. At Discount Tire stores, for example, RoboTire systems remove, lift and fit wheels while technicians operate them. We expect the workshop of the future to work the same way: robots for repetition and load, people for diagnosis, quality and the unexpected.