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Mission

We are building the means to accelerate production.

Every major leap in human progress came from one thing: making more with less. The lever, the engine, the computer, each let the same level of human effort produce far more than before. Not replacing people, but amplifying them instead. That's how costs fell, and what was once scarce became abundant. We exist to do this for the physical world.

Software went exponential, so did AI and the silicon powering it. In the world of bits, the cost of trying something new fell to nearly zero: copy, change, ship a thousand times a day.

The physical world never got that curve. We build things in the real world much the same way we always have. A line of code can be rewritten in seconds, but a production line takes months and millions to change. Atoms have no undo button, they are slow, costly and unforgiving. That is why the exponential that transformed bits never reached atoms.

To make 10x or 100x more, swapping one worker for one robot will never be enough.

The paradigm itself has to change.

Robots connect bits to atoms.

They make the physical world observable and controllable through software. Physical AI is advancing fast, and enabling things we thought impossible until recently. Yet the majority of robots in production today run on almost no intelligence, no cameras, no sensors; laboring tirelessly all the same.

So where are all the robots?

The gap is not intelligence. It is deployment. Manufacturing at scale demands reliability in the order of 99.9...%, where each 9 requires a step change in effort across the stack to achieve. Robots need to earn their place by doing each task perfectly. The dilemma is how to achieve deployments that do tasks perfectly without having enough data.

The solution is to specialize: build automation that does what humans can't, raising the floor and the ceiling. Move intelligence to design time so that we can generate for each task, the best co-designed process and automation that achieves highest performance and reliability. Specialized enough to be the obvious choice: more efficient, faster, and more reliable than any general alternative.

The barrier has always been the cost of building and integrating something custom. And that's why we're working to drive that cost towards zero. Then generating the right machine for the task becomes nearly free, and specialization is no longer a luxury, it becomes the default.

Real world gaps.

Making things in the real world is not just production, it is design, process, supply chains, scheduling, operations, and the constant reshuffling of all of them as needs evolve.

Today they live apart. A change in design has to be chased manually through everything downstream, from the process, tooling, across teams, work instructions to the floor. Nothing is connected so nothing updates on its own. Robots are only one part of the system, the rest of it needs to be interconnected too.

Integration is the answer.

Deeper and more complete than has ever been built. One substrate connecting the physical and digital worlds, so that atoms become as observable, as controllable and as iterable as bits.

Real integration has to reach every domain it touches, so a change in design flows on its own from process to factory floor. One stack of hardware, software, intelligence, people and machines, working as one, so people can direct the system instead of wrangling and stitching it together.

The more that lives on one surface, the more the whole can be planned, controlled, and improved as one. This is how the physical world finally becomes exponential, by making the act of changing it cost less and less.

This is where it leads.

The factory is the product, and our product is the factory. A factory should be designed, deployed, operated, and improved as an integrated system. It should learn from every run, every change and continuously improve through data.

What you imagine and how it is built, finally unified. Teams that can make 10x or 100x more with the same effort.