Intelligence, grounded in the physical world.

Critical Intelligence

An articulated robotic gripper senses the surface of an object, connecting physical contact with a point cloud.

Persistent deployment intelligence for Physical AI

From capability to reliability.Explore our approach

Capability is a beginning
Reliability is continuous

A capable model still has to work in a particular place, on a particular machine, under conditions that keep changing.

Geometry varies. Calibration drifts. Materials, sensing, and operating conditions change. The distance between a successful demonstration and dependable operation is a deployment problem.

We are building Critical Intelligence to close that distance and stay there as the world changes.

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Keep learning

Runtime evidence meets engineering context. Every intervention is tested against the system it is meant to improve.

A precision robotic arm follows a motion trajectory, with feedback at its gripper.
01

Observe

Connect runtime data and engineering context to understand how the system performs.

02

Understand

Identify emerging risks, changing conditions, and gaps in what the system has learned.

03

Intervene

Choose the next useful experiment, calibration, adaptation, or operating change.

04

Verify

Measure the result on the physical system. Preserve what works and keep observing.

Verified outcomes become deployment memory. The loop continues.

What should the
system learn next?

Physical experimentation is expensive.
The next experiment should matter.

A targeted replay. A missing measurement. A calibration change. A carefully chosen physical trial.

Our approach uses existing data and simulation to identify where new evidence is most useful, then verifies the intervention on real hardware.

The objective is better real-world performance with less unnecessary physical iteration.

The principle

Observe continuously. Intervene deliberately. Verify in the real world.

One physical system
A measurable next step

We are validating the loop through controlled robotics experiments and field discovery with prospective deployment partners.

Our initial focus is engineered physical environments, where geometry, process requirements, and objective outcomes provide a foundation for rigorous validation.

We are interested in working with robot builders, autonomy teams, systems integrators, and operators who own the reliability loop.

Discuss a deployment
An autonomous rover follows a revised path around obstacles in a sensed environment.
The starting point

A bounded reliability gap. An instrumented system. A result we can verify.

The real world is
the next frontier

Building or deploying a physical AI system?
We would like to understand what reliability means for you.

Let’s talk