Out-of-the-box generalization
The intelligence is built to work on new tasks and in new environments — not narrowly trained for one application and stranded everywhere else.
One robot intelligence that perceives, reasons, and manipulates — paired with a full-stack platform that trains and validates new skills in simulation, then carries them to real hardware.
At the center of CALISTA is a robot intelligence system — effectively the brain of our robots. It lets a machine take in its surroundings, understand an instruction in plain language, reason about how to carry it out, and manipulate objects with precision to see it through.
Robots are meant to automate work, yet building them still depends on slow, manual training. Our full-stack platform breaks that bottleneck: it runs thousands of simulated trials in minutes, and the results match real-world performance — so a skill can be developed and validated long before it ever reaches the floor.
We don't narrow CALISTA to a single industry. The same system handles household activities, laboratory work, and manual assembly — because we build the whole stack, both the robots and the simulation platform that trains them, toward one goal: working out of the box on unfamiliar tasks and environments.
General-purpose, not single-purpose. These are the commitments that shape how we build physical AI — and why a CALISTA robot is meant to be useful the moment it meets an unfamiliar task.
The intelligence is built to work on new tasks and in new environments — not narrowly trained for one application and stranded everywhere else.
We build both the robots and the simulation-based training platform. Owning the whole stack is how perception, control, and learning stay in step.
From cracking an egg to seating a connector, the same hands handle delicate, contact-rich work with the precision each task demands.
Tasks run autonomously and at a normal pace — not teleoperated, not slowed to a crawl. Useful speed is part of the definition of done.
Thousands of trials run in minutes, and what works in simulation works on the robot. Validation happens before deployment, not after.
Our aim is to build real-world intelligence end to end — a new generation of robotics builders making highly capable, general-purpose machines.
The tasks we demonstrate aren't confined to one setting. They span the home, the laboratory, and the assembly line — which is exactly what general-purpose is supposed to mean.
Everyday handling in an unstructured kitchen: cooking eggs, making a smoothie, picking up and putting away an assortment of objects.
Precise, repeatable bench work: pipetting samples and handling instruments with the steadiness and accuracy that lab protocols require.
Contact-rich manual assembly: routing and seating wire harnesses, picking multiple parts, and the fiddly steps that resist fixed automation.
A new skill starts from a demonstration of the task and the environment it lives in — the goal, the objects, the constraints.
The platform runs the task across thousands of simulated variations in minutes, exploring grips, angles, and recoveries.
Results are checked against real-world performance, so a skill is validated before it ever runs on hardware.
The skill joins the robot's shared library and runs autonomously, at normal speed — ready to generalize to the next task.
CALISTA is a new generation of robotics builders on a single mission: highly capable, general-purpose robots. We're backed by several venture capital firms and a number of prominent individual investors, and we're actively hiring across the technical roles that make physical AI real — perception, control, learning, simulation, and hardware.
The open problems we care about most on the way to general-purpose physical AI.
Getting one system to handle tasks and environments it was never explicitly trained on — the difference between a demo and a general-purpose robot.
Closed-loop control that's gentle enough for an egg and exact enough for a connector, across the long tail of objects the world actually contains.
Closing the gap between thousands of fast simulated trials and what the hardware does, so validation in minutes predicts behavior on the floor.
Designing hardware, intelligence, and the training platform as one — because broad dexterity and reliability come from the whole stack moving together.
Whether you're exploring a deployment, the platform, or a role on the team — tell us what you're working on and we'll get back to you.