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Reliability for
robot deployments.

Cut your deployment time in half.

We will join you on your site, inspect and diagnose your deployed robot and give you a a full audit report and root cause analysis, free of charge.

UC Berkeley SkyDeck · Batch 22

A promising demo is not a release decision.

Retraining, calibration drift and environment changes move robot behavior in ways an aggregate benchmark never shows. You need to know where the policy works, where it fails, and whether the candidate beats the deployed baseline.

Reliability versus engineering effort curve

From a robot run to an engineering decision.

Demo data
01

Capture

Normalize the run, outcome, version and operating conditions into one record.

02

Score

Measure reliability by condition, with confidence and coverage made explicit.

03

Explain

Compare cohorts and surface the changes most associated with the regression.

Pick the decision that is blocking your team.

01

Policy Release Sign-off

Decide whether the next learned-policy release is ready to ship.

Bring
Baseline and candidate runs, condition matrix, release metadata
Leave with
Go / no-go brief, scoped reliability, regressions, coverage gaps
02

Field Failure Autopsy

Turn a costly field failure into a ranked, testable explanation.

Bring
Failed and healthy runs, logs, versions, calibration and operator notes
Leave with
Failure cohort, change map, likely contributors, next experiments
03

EOL Yield Intelligence

See which end-of-line conditions are driving rejects and rework.

Bring
Station outcomes, configurations, interventions and inspection records
Leave with
Yield baseline, loss segments, recurring signatures, action queue

Evidence in. Findings out.

evaluation / learned-pick-behaviorAnalysis complete

Inputs

247labeled hardware runs
  • Model, code and calibration versions
  • 6 lighting setups · 4 calibration bands
  • 18 object poses and run-level outcomes

Outputs

91%reliability · 95% CI [87%, 94%]
  • Reliability segmented by condition
  • Coverage matrix with confidence bounds
  • Low-light called out as untested, not assumed

Engineering findings

Camera position shift aligned with a cohort drop from 91% to 64%.
  • Candidate model showed 3× more object drops
  • Runtime latency increased 18 ms after a software change
  • Resulting success rate moved down 8 points

Anonymized snapshot. Association is reported separately from causation; findings become experiments to confirm.

The OORB loop

Capture every run. Score reliability. Explain what changed.

01

Capture the evidence available

Start with the outcomes and metadata your stack already produces. During intake, we identify gaps and agree on any additional instrumentation before the evaluation starts.

02

Score by operating condition

Report success and intervention rates with confidence intervals, cohort comparisons and an explicit list of conditions that remain untested.

03

Explain the movement

Link version, calibration and environment changes to outcome shifts, then rank the next experiments needed to confirm the likely cause.

Keep robot data inside your boundary.

Raw logs and video can stay in customer-managed infrastructure. Access, retention and deletion are agreed before data moves.

01

Local-first option

Process raw run data in a customer-controlled environment when required.

02

Minimum necessary data

Share derived run manifests and results instead of raw media where possible.

03

Scoped access

Use read-only paths where possible and document retention and deletion up front.

Evaluate one robot behavior before it ships.

We will come to your deployment site and provide a full audit, free of charge.

Prefer email? contact@oorb.io