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Unlike digital applications, every physical AI device like a robot has a unique hardware setup with different sensors. Closed, monolithic models cannot cater to this variety. Open models are essential as they provide a foundational base that developers can customize and fine-tune for their specific physical embodiment.

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OpenAI's Teis Simonian highlights that hardware is no longer the main barrier. With 3D-printable arms costing only a few hundred dollars, anyone can now connect them to powerful models like Astra to experiment with physical AI tasks, democratizing robotics development.

Instead of loading robots with costly sensors for touch or force, powerful learning models can infer physical properties from simple cameras. A wrist camera can act as a "touch sensor in disguise" by observing local deformations, dramatically lowering hardware costs and complexity for scalable robotics.

Unlike maintaining software code, 'maintaining' an open-source AI model is about operationalizing a finished artifact. The community's work involves adapting the model to run on diverse hardware, from edge devices to massive clusters, and specializing its performance for entirely different applications, such as low-latency voice agents versus high-throughput coding assistants.

The Physical Intelligence thesis is that a foundation model learning from diverse data can achieve a "physical understanding" of the world, making it easier to adapt to new tasks than building single-purpose robots from scratch. Generality leverages broader data, which is ultimately a more scalable approach.

For NVIDIA, an "open model" is more than just open weights. Their approach provides a complete toolkit: the pre-trained model itself, the training framework required to fine-tune it with custom data, and even the datasets used in its creation, enabling true customizability and innovation.

New AI lab Odyssey is not building a direct robot controller. Instead, its 'foundation world model' acts as a general-purpose 'physics engine' for AI, learning the rules of reality from data. This foundational layer can then be licensed and used by other companies to build their specific action-oriented robot models.

Large Language Models are limited because they lack an understanding of the physical world. The next evolution is 'World Models'—AI trained on real-world sensory data to understand physics, space, and context. This is the foundational technology required to unlock physical AI like advanced robotics.

Mirroring Google's Android strategy for mobile, Applied Intuition created a specialized OS to run AI across diverse hardware. This layer solves for safety-critical needs like real-time control, memory management, and reliable updates, which were previously impossible due to fragmentation across manufacturers.

Unlike pre-programmed industrial robots, "Physical AI" systems sense their environment, make intelligent choices, and receive live feedback. This paradigm shift, similar to Waymo's self-driving cars versus simple cruise control, allows for autonomous and adaptive scientific experimentation rather than just repetitive tasks.

By solving the core "intelligence" problem with a foundation model, the barrier to entry for creating novel robotic applications and form factors will dramatically decrease. This will enable a "Cambrian explosion" of hardware creativity, as builders will no longer need to solve AI from scratch for each new idea.

Physical AI Demands Open Models to Accommodate Diverse and Unique Sensor Configurations | RiffOn