Nvidia has partnered with several Japanese robotics firms to develop and accelerate "physical AI" technologies in Tokyo [1].

This collaboration aims to integrate advanced artificial intelligence into hardware, potentially transforming how robots interact with the physical world. By building a national AI infrastructure, the partnership seeks to elevate the operational capabilities of robots across Japan [1, 2].

The initiative includes a broad coalition of industry leaders. Partners include Fanuc and Yaskawa Electric [1, 3], alongside Kawasaki Heavy, and Fujitsu [4, 5]. These companies intend to utilize Nvidia technology to push the boundaries of physical AI, which focuses on the intersection of digital intelligence and mechanical movement.

Specific applications of this technology are already emerging. Kawasaki Heavy is working with Nvidia on physical AI, a move that will provide a foundation model for its rideable robot horse [4]. This suggests a shift toward more autonomous and adaptable robotic systems that can learn from their environments rather than relying solely on pre-programmed instructions.

"With AI, robots will become smart," a spokesperson for Nvidia said [2].

The effort to expand Japan's physical AI ecosystem is a strategic move to maintain the country's leadership in robotics. By combining Nvidia's computing power with the mechanical expertise of firms like Fanuc and Yaskawa, the partnership intends to accelerate the deployment of intelligent machines in industrial and commercial settings [1, 3].

The announcement was officially made on July 16, 2026 [1].

“"With AI, robots will become smart,"”

This partnership signals a shift from traditional industrial robotics toward 'Physical AI,' where machines use foundation models to perceive and react to their surroundings in real time. By embedding Nvidia's AI infrastructure into the hardware of Japan's leading robotics firms, the industry is moving toward a future where robots are not just tools for repetitive tasks but are intelligent agents capable of complex, autonomous interaction.