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CoreWeave Launches Physical AI Field Engineering to Turn Proprietary Data Into Production AI

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New offering embeds CoreWeave engineers with customer teams to build and deploy Physical AI using their proprietary data, while customers retain control of their data and the resulting models

LIVINGSTON, N.J., September 10, 2026--(BUSINESS WIRE)--CoreWeave, Inc. (Nasdaq: CRWV), The Essential Cloud for AI™, today announced the launch of Physical AI Field Engineering, an offering that pairs customer teams with domain specialists to build, validate, and deploy AI across the full engineering lifecycle, from research and development through in-field operations. Built on the team and methods CoreWeave acquired with Monolith AI, the service runs on CoreWeave's own platform and integrated engineering AI solution.

CoreWeave's roll out of Physical AI Field Engineering closes the distance between domain expertise and applied AI. CoreWeave engineers who come from automotive, aerospace, and mechanical engineering work alongside a customer's own team, building models from data the customer already owns, like test bench results, simulation output, production sensors, and live telemetry. Each model is validated against the real physics of the customer's systems until it holds up in practice.

"AI is helping us unlock greater value from the vast amount of engineering and test data we generate every day," said Emma Deutsch, Director of Engineering & Test Operations, Nissan Technical Centre Europe. "Our Engineers are able to use these advanced models to focus their work on delivering the best vehicles for our customers that maintain the quality, safety and reliability that are fundamental to Nissan."

CoreWeave's approach to physical AI field engineering has already been applied across more than 100 engineering projects in automotive, aerospace, and robotics. For the Aston Martin Aramco Formula One™ Team, CoreWeave engineers were embedded on site during live race weekends and built a transcription model that reached production accuracy after being trained on seven hours of hand-annotated race audio and refined across 75 iterations. The platform now processes 40 radio channels at once, fast enough to answer a tire strategy question inside a pit window that closes in under thirty seconds.

Physical AI is where the gap between domain expertise and applied AI is widest, and where integrating AI into engineering processes adds requirements around explainability, accuracy, repeatability, and safety on top. Models here fail on data far more often than on architecture or compute. Teams spend much of their time preparing data and still miss the rare, high-stakes events that matter most. Closing this gap requires a loop physical AI teams have been working toward for years: find the scenarios missing from the data, build credible versions of them, and judge whether the results hold up. This work demands rare expertise: engineers who understand combustion dynamics or aerospace loads and can also build and validate a machine learning model. For AI-native teams, the gap runs the other way: the modeling expertise is there, but the physics of the systems those models are meant to serve is not.