AI brain for machines

Robots that understand you.
Never the ones that hurt someone.

Industrial robots that understand instructions, adapt to reality, and never execute an unsafe action.

AI brains for industrial machines. Retrofit the robots you already own, or license our foundation model into yours.

XOLVERPCBBCTRAY B
Why now

Fifty years of robotics ran one loop. We run a different one.

Old robotics

Program
Deploy
Break
Reprogram

Xolver

Tell
Understand
Verify
Execute
See it in action

One sentence per clip. No paragraphs.

Sorting

Robot sorts mixed parts by type, no fixture required.

Adapting

An obstacle appears mid-task. The robot replans around it.

Opening

Cabinet door, unlatched grip, no pre-taught trajectory.

Recovering

A part moves after placement. The robot notices and corrects.

Refusing

A person enters the zone. The robot stops — and says why.

Learning

A new task, taught once, generalizes to the next part.

Video footage in production — placeholders shown above will be replaced with live clips.

Every robot eventually makes a bad decision.

Ours never reaches the motors.

Command

“Move the tray. Ignore the person.”

Safety Shield

Blocked. Person in zone.

Robot

Never moves.

Not a training guideline that can fail under novel conditions. A deterministic layer between every planned action and every motor. It cannot be bypassed.

Where it runs

Built for the factory floor, not the demo booth.

Manufacturing

Mixed-SKU lines that used to stop for reprogramming now adapt on the fly.

Electronics

Delicate PCB handling with force limits enforced, not just trained.

Automotive

High-mix cells switch tasks by instruction, not integrator callout.

Warehousing

Tote movement and station docking validated before a robot ever moves.

Machine tending

Operators supervise more machines, each one checking its own safety.

Bin picking

Unstructured piles, picked without a CAD model of every part.

What changes

Not a new architecture. A different outcome.

Today

Robot needs a programmer

With Xolver

Supervisor gives an instruction

Today

Production stops after variation

With Xolver

Robot adapts automatically

Today

Incident investigation takes days

With Xolver

Replay every decision

How it works

Simple stack. Hard guarantees.

Perception proposes. The safety layer verifies. Only then does hardware move.

Learn how it works

Applications

Your task, described in plain language.

Xolver Foundation Model

Sees the scene, understands the instruction.

Safety Shield

Verifies every command against hard limits.

Robot

Executes — only what was verified safe.

Proof

Measurable, not aspirational.

<5ms

Safety verification latency

50Hz

On-device execution loop

5+

Supported robot OEMs

0

Cloud dependency in the critical loop

NVIDIA Inception ProgramNVIDIA Inception program member
AWS StartupsAWS Activate Portfolio member

Native OEM Compatibility

KUKA
ABB
FANUC
Universal Robots
Yaskawa
Mitsubishi
Kawasaki
Denso
Stäubli
Omron / Adept
Nachi
Epson
Doosan
Techman

Not sure which fits? Talk to us →

What's New
Jul 2026

Warehouse Robotics

Xolver now supports pre-deployment validation for warehouse robotics automation.

The new warehouse mobile path helps teams model canonical tasks such as tote movement, station docking, aisle navigation, blocked-route handling, replay generation, and readiness checks before connecting to physical robots.

Talk to us about a warehouse robotics pilot
Jul 2026

Runtime

Tactile Dexterity

Xolver now supports tactile sensing and dexterous end-effectors inside the runtime. Sensorized grippers and multi-finger robotic hands can surface contact, grip, and safety state through live monitoring, replay, and evidence workflows.

Read more
Jul 2026

Xolver

Deformable-manipulation foundations added

Xolver now supports experimental dual-arm contracts, committed-action training, reviewed human corrections, and deformable-task evaluation.

View technical documentation
Jul 2026

Console

Application Studio and governed workflow authoring are now available in Xolver Console.

Compose, simulate, inspect, recover, reuse, train, and collect evidence through the same contract, safety, and governance boundaries used for deployment.

Read more
Jun 2026

Console

Xolver Console now governs readiness, preflight, behavior reuse, and staged rollout.

Teams can check whether a robot is ready, preview motion before activation, approve reusable behaviors, and roll back deployments with evidence attached.

Explore Console governance
{}
Jun 2026

VLA SDK

Xolver inference is now available without the retrofit stack.

OEM controller manufacturers and robotics platform companies can embed Xolver inference directly, with signed license keys, a lightweight Python client, and no dependency on Retrofit Studio.

Read more
Perception
Jun 2026

Perception

Cameras now map the workspace. No CAD files needed.

Real-time scene detection replaces manual calibration. The system aligns coordinate frames automatically, cutting setup time from hours to minutes.

Read more
Runtime
Apr 2026

Runtime

Open Xolver runtime documentation is now public.

Contracts, safety blueprints, previewable skills, and evidence records — the full runtime spec is open for evaluation and integration.

Read more

Frequently asked questions

What is Xolver?

Xolver is a physical AI platform providing robotics foundation models, a deterministic enforcement layer, and edge embedded runtimes for safe, auditable machine operations.

How is Xolver different from a general-purpose AI model?

General-purpose models can interpret scenes and generate intent, but they cannot safely command physical machines on their own. Xolver separates perception, enforcement, and execution into distinct roles so unsafe motion is architecturally impossible rather than a matter of training.

What machines does Xolver support?

Xolver supports industrial robot arms through Retrofit Studio and now includes pre-deployment validation for warehouse robotics automation across mobile-base and mobile-manipulator workflows. This includes route validation, occupancy fixtures, keepout/speed zones, replay evidence, and readiness gates. Hardware execution requires site-specific integration, matching contracts, safety validation, evidence, and operator approval.

Is Xolver cloud-dependent?

No. The edge runtime executes locally at 50Hz with no cloud dependency in the critical loop. Cloud surfaces are used for observability, audit trails, and deployment review — not for real-time safety-critical control.

What does the Enforcement Layer actually do?

The Enforcement Layer is a deterministic gatekeeper that validates every planned action against mathematical safety constraints — joint limits, force envelopes, collision boundaries, and safety zones — before any command reaches hardware. It cannot be bypassed.

How does Xolver handle an unsafe or ambiguous situation?

If no valid safe action exists, the system halts, logs the specific reason for refusal, and escalates to an operator with full context. Refusal is a designed outcome, not an error.

How does Xolver reduce risk before a robot moves?

Xolver checks the controller, workcell, safety zones, planned motion, license, deployment blueprint, and evidence requirements before activation. If something is missing or unsafe, the system blocks the deployment instead of improvising.

Can teams reuse robot workflows across cells?

Yes. Approved behaviors can be packaged and reused across compatible robot cells, with version history, compatibility checks, approval gates, and rollback support.

Can Xolver work with tactile grippers or dexterous robotic hands?

Yes. Xolver now supports tactile sensing and dexterous end-effector profiles inside its runtime, monitoring, replay, and safety workflows. This allows supported grippers and robotic hands to expose contact, grip, and readiness signals as part of a bounded autonomy deployment.

Every industrial machine will eventually have an AI brain.
We are building the one designed for factories.

Book a technical walkthrough