Now in early access

Robots are leaving the demo phase

The incident response system that makes robot fleets deployable at scale.

01

Production failures are messy

Robots get stuck. They hit safety stops. They oscillate. They degrade after updates. The data you need isn't a log file — it's multimodal, high-frequency streams.

01

Downtime

Operators step in. Engineers debug incident-by-incident.

02

No traces

Failures need multimodal streams, not simple logs.

03

Repeat failures

Post-mortems happen, but the same issues return.

04

Manual recovery

Teleop becomes the default recovery mechanism.

02

The Autonomy Reliability Layer

Fleets can run at high uptime if failures are handled fast and systematically, and every failure becomes a learning signal.

01

Incident Capture & Replay

Sensor snapshots, perception outputs, planner state, control commands — auto-assembled into a deterministic replay.

02

Immediate Recovery

Simple nudges, reversing, waypoint overrides. Get robots unstuck in minutes without full teleop.

03

Failure Clustering

Seven incidents across the fleet? That's one reliability problem with seven examples. Fix the pattern.

04

Reliability Gating

Clusters become regression tests. Release gates block versions that increase failure rates.

6 min

Mean time to recovery

down from 2+ hours

80%

Fewer repeat incidents

with reliability gating

99.3%

Uptime target

achievable for production fleets

03

Starting with warehouse AMRs

Where downtime directly impacts throughput, fleets are large enough that failures are frequent, and operations teams are already forced into manual recovery loops.

Warehouse AMRsRobot ArmsCleaning RobotsSecurity & PatrolOutdoor Autonomy

Autonomy won't be perfect.
Fleets can still run like a product.