Cluster summary
Related deployment events grouped by failure signature, affected task, and available evidence.
Sim2Real helps robotics teams investigating manipulation and perception failures in warehouses and factories turn deployment telemetry into prioritized clusters, reviewable recommendations, and a tighter validation loop.
Best fit: teams with a deployed or field-testable robot, repeatable task outcomes, and an owner for simulator or training changes.
Not for: replacing a simulator, outsourcing labeling, generic observability, or teams without a path to validate a recommended change.
Add controlled object-pose variance and specular-light sweeps, then replay the grasp policy against the same task boundary.
The examples below are synthetic and illustrative. They show the structure of the decision workflow without presenting fictional customer results as proof.
Related deployment events grouped by failure signature, affected task, and available evidence.
A reviewable simulation or training change tied back to the observed evidence and task boundary.
A before-and-after view of the affected deployment task, without claiming causality the evidence cannot support.
Problem: Missed grasps under reflective glare and pose variance.
Failure cluster: Object tilt + reflective glare (37 grouped events).
Recommendation: Add controlled pose variance and specular-light sweeps, then replay the grasp policy against the same task boundary.
Validation: A before-and-after comparison on the same pick boundary across subsequent deployment runs, reviewed by the engineer who owns the change.
Synthetic demo. This data is fabricated. It shows how Sim2Real structures a failure cluster — it is not a customer result.
Logs, videos, task outcomes, and operator notes often live in separate tools. Engineers can see that performance changed, but the path from field symptom to testable simulator correction remains manual.
The loudest incident wins attention instead of the most repeatable pattern.
Teams cannot clearly connect a new scene, parameter range, or training run to the deployment evidence that motivated it.
Without a shared validation checkpoint, it is difficult to know whether a change improved the targeted failure mode.
Each step exposes its input, output, user effort, and operating cadence so buyers can evaluate the workflow before committing to a pilot.
Target time to first reviewable failure cluster: 1–2 weeks after the telemetry boundary and task definition are agreed.
Choose one deployment task and the failure evidence worth investigating.
Send structured events through the JSON API with the context available for that task.
Inspect grouped patterns, supporting evidence, affected deployments, and open questions.
Apply an agreed simulator or training change, then compare the next run against the same failure pattern.
Setup: JSON API mapping scoped during pilot intake. Owner: a robotics or platform engineer who understands the event boundary.
Cadence: aligned to the team’s review loop. Owner: the engineer responsible for approving and testing the change.
Authenticated workspace for deployment records, failure clusters, evidence review, recommendations, and validation history. Exact production architecture is qualified before purchase.
Authenticated per-user workspace surfaces, API-key telemetry ingestion, deployment records, failure trends, notes, and recommendations.
Scope one deployment task, review grouped evidence, and connect an agreed failure pattern to a candidate simulation or training change.
MuJoCo and Isaac Sim exports are pilot-supported with hands-on engineering support during a pilot. ROS/ROS2, Omniverse, and custom stacks are scoped per engagement against the team’s telemetry boundary and deployment workflow.
| Decision step | Manual workflow | Sim2Real workflow |
|---|---|---|
| Collect evidence | Search logs, videos, tickets, and notes separately | Use one scoped event boundary and linked deployment context |
| Find repeatable patterns | Rely on ad hoc queries and team memory | Review grouped failure clusters and supporting events |
| Choose a simulator change | Translate symptoms into scene or training changes by hand | Review a recommendation tied to the observed pattern |
| Validate the result | Compare runs with inconsistent documentation | Record the targeted failure, change, and next deployment outcome |
Sim2Real uses authenticated per-user workspace access, API-key telemetry endpoints, server-side route guards, and browser security headers in the current application.
Review the privacy policyQualified pilots are handled as direct engineering engagements: define the event boundary, inspect the artifact, and agree on a validation plan before broader rollout claims are made.
Certifications, team-level isolation, and custom retention are not implied by this page; requirements are documented during commercial scoping. Sim2Real is currently cloud-hosted: VPC, on-premise, regional, and air-gapped deployments are not standard offerings and are evaluated individually for qualified enterprise engagements. Evaluation does not guarantee availability.
Use the published pilot tier when one team needs to investigate a bounded deployment problem and can participate in the validation loop.
Enterprise Transfer starts at $2,500/month for broader fleet and integration scope, subject to qualification.
Discuss enterprise scopeQualified pilots include direct engineering discussion about the event boundary and validation plan.
Request pilot assessmentA pilot can start with structured task outcomes and the sensor or controller context already available. The exact schema is scoped around the failure pattern, not a universal data checklist.
The current API can accept events as they are produced or from a controlled batch process. The pilot defines the cadence that matches the team’s validation workflow.
MuJoCo and Isaac Sim exports are pilot-supported today. ROS/ROS2, Omniverse, and custom stacks are scoped per engagement; compatibility depends on the event schema and where the team can apply a recommended change.
No. Operator labels and incident notes can help, but a pilot can begin from task outcomes and available context. Engineers still review whether a cluster is meaningful.
The team reviews the evidence, applies the proposed simulation or training change, and compares the next run against the same task and failure pattern.
Media handling is scoped explicitly before transfer. Start with references or metadata unless the pilot agreement defines the media boundary, retention, and authorized reviewers.
A useful first month produces an agreed telemetry boundary, at least one reviewable failure cluster, and a documented validation loop for the next change.
No. It connects deployment evidence to decisions in the simulator, training, and rollout workflow your team already operates.
Authentication and route protections exist in the current application. Data fields, retention, deletion, hosting, and access requirements are documented during pilot qualification.
Published plans use the secure billing workflow described on the pricing and account pages. Plan changes and cancellation follow the applicable subscription terms.
Share your robot count, deployment stage, simulator, telemetry, and target timeline. We will use the assessment to determine whether a pilot is technically useful.