Field incident, simulation replay, verified patch, and safety case in one SimPatch proof story.
Deal-room brief
Patch governance for autonomous machines.
This brochure is for robotics executives deciding whether SimPatch is worth a pilot. The answer is yes when field-failure reproduction, simulation evidence, patch-candidate review, safety-case approval, and fleet rollout timing are slowing revenue or raising legal exposure.
Board packetROI, risk, SLA, confidence.
Proof chainTrace to patch to rollout.
LicenseCustomer docs and activation.
Executive summary
SimPatch creates a customer proof command center for robotics and autonomous-machine teams. It packages ROS 2 .db3 bag evidence, LiDAR and odometry traces, Gazebo or Isaac Sim replay, BehaviorTree.CPP XML patch candidates, verification queue review, safety-case approval, regression ledger history, and fleet rollout controls.
The source evidence frames the market as an AMR and industrial robotics expansion from approximately $15.5 billion in 2024 toward more than $35 billion by 2034. It also cites unplanned downtime averaging $260,000 per hour and $1.4 trillion annually across the Fortune 500. SimPatch exists because robot software field failures are becoming a board-level operating cost.
The product sells because the buyer is not purchasing another dashboard. They are buying a defensible way to decide whether a machine behavior patch can move from incident to field release.
| Buyer | Budget reason | Proof they need |
|---|---|---|
| VP Robotics Engineering | Reduce repeat incident investigation and patch delay. | Field failure to simulation scenario to patch candidate cycle time. |
| Safety / Risk Owner | Control unsafe rollout, legal exposure, and insurance escalation. | Safety case, reviewer approval, regression ledger, and rollout gate. |
| Fleet Operations | Lower downtime and protect customer acceptance. | SLA status, evidence ready score, confidence, coverage, and board packet. |
Visual sales assets
Buyer-facing robot visuals anchor the pitch.
Source proof map
The brochure follows the whitepaper argument.
| Whitepaper point | Buyer-facing translation |
|---|---|
| ROS 1 Noetic end-of-life in May 2025 and roughly 85% ROS 2 driver coverage | ROS 2 is now a practical middleware target for behavior-tree patch tooling. |
| LLMs and Automated Program Repair, including AutoPatchBench | Program repair is moving toward measurable patch-generation workflows, but SimPatch verifies in simulation before presenting code. |
| ISO 10218-1:2025, ISO 10218-2:2025, IEC 61508, and Regulation EU 2024/1689 | Safety-case PDFs must preserve failure mode, root cause, patch, simulation pass/fail, residual risk, traceability, and human oversight. |
| Gazebo Ionic and Isaac Sim 5 reducing the reality gap | SimPatch uses simulation-in-the-loop evidence while refusing to claim perfect real-world safety. |
Physical AI workstation expansion
The World Model Lab offer extends the proof chain.
| Supplemental capability | Buyer-facing value |
|---|---|
| Scenario Packet Builder | Turns a robot incident into a structured packet that can target Gazebo, Isaac Sim, Omniverse, or future Cosmos-style physical AI adapters. |
| Synthetic edge cases | Tests the patch against low light, reflective surfaces, wet floors, human crossing, payload shift, and sensor noise instead of overfitting to one log. |
| Action Prediction Panel | Shows likely unsafe behavior, safer corrected behavior, blocked actions, and human-in-the-loop requirements before rollout. |
| Patch Confidence Score / Sim fidelity | Gives safety and engineering leaders measurable confidence signals for deciding whether a patch moves forward. |
| Cosmos / Coalition boundary | Positions SimPatch as vendor-neutral and world-model-ready while avoiding unsupported claims of live Cosmos-3 execution or official coalition membership. |
| Dual-use safety gate | Supports inspection, logistics, maintenance, rescue, warehouse, construction, and autonomous machine safety while blocking restricted weaponized workflows. |
Failure anatomy and ROI
Concrete warehouse AGV case.
| Step | Current pain | SimPatch response |
|---|---|---|
| Incident | 3D iToF depth camera hits a reflective shrink-wrapped pallet, miscalculates depth, collides, and triggers an E-stop. | Capture incident context, ROS bag, point clouds, behavior tree state, and safety constraint. |
| Manual reproduction | Engineers spend 1-2 weeks recreating lighting, reflectivity, and layout in Gazebo or Isaac Sim. | Generate a simulation scenario from LiDAR, odometry, /tf, and /odom evidence. |
| Patch | Engineers write C++ or XML behavior tree changes and validate manually. | Generate a bounded BehaviorTree.CPP XML patch such as BackUpAndSpin recovery. |
| Economics | 3PL example: 50 AGVs, 3-week MTTR, $50,400 downtime, $12,000 engineering labor, $62,400 total incident cost. | Target 3-day MTTR, $8,400 new total cost, and about $54,000 savings per incident. |
Evidence examples
Comparable incidents and market signals.
Waymo recall
2024 pole-detection failure and recall of 672 vehicles shows why autonomy edge cases can require fleet-wide software updates.
AMR depth sensing
3D iToF failures on reflective surfaces or thin objects show why reproducible sensor edge cases matter.
Amazon Kiva-style density
Higher robot density increases rare safety interactions and the need for rapid, documented remediation.
Economic debate
Who buys it, what changes, and why now?
Who buys
Robotics engineering leaders, autonomous machine operators, risk teams, and enterprise buyers responsible for machine behavior acceptance.
24 hours
Establish the first field failure baseline, source telemetry, and simulation replay plan.
30 days
Prove patch-candidate cycle time, safety-case review quality, and rollout gate clarity.
6 months
Convert repeated failures into a standard proof chain across fleets and customer deployments.
Cost of not using
Manual reconstruction, unsafe rollout, legal exposure, downtime, and slow acceptance remain in the operating model.
Make work better
Teams get one shared record for what failed, what changed, what passed, and what should not ship yet.
Competitive position
Why SimPatch is distinct.
Competitor and alternative market standard tools like Foxglove, Rerun, rosbag, Formant, FleetOps, Applied Intuition, Cognata, and AWS RoboMaker help inspect, monitor, or simulate. SimPatch is the buyer-facing proof system that connects those signals to patch candidate governance, safety case approval, ROI, SLA, board packet readiness, and fleet rollout.
Generic LLM coding assistants such as GitHub Copilot can suggest code, but they do not understand ROS 2 middleware, behavior tree XML, physical safety constraints, or whether Gazebo proves the robot avoids collision. Traditional Automated Program Repair focuses on software-only defects rather than cyber-physical failures like distance < 0.3m.
World-model and simulator vendors help create scenes or run tests; SimPatch adds the governance layer around them: scenario packets, synthetic variants, action prediction, Patch Confidence Score, sim fidelity, evidence packets, and human-review release gates. The buyer sees decision speed, risk movement, confidence, coverage, proof-chain completeness, and cost-of-failure reduction in one licensed workspace.
Commercial package
Pricing and pilot path.
Payment Test
$1
Private launch checkout used to verify Polar payment, webhook delivery, and access-key issuance before public traffic.
Per Incident
$5,000
One successfully verified patch package tied to a historical ROS 2 bag.
Pilot
$25,000
30-day field failure, simulation, behavior-tree patch, and safety-case pilot.
Fleet License
$40,000/year
Annual licensed workspace for up to 50 robots, customer docs, activation, license status, rollout governance, and board reporting.
Physical AI Governance Add-On
Enterprise pilots can add the World Model Lab package: Scenario Packet Builder, synthetic edge-case generation, Action Prediction Panel, Patch Confidence Score, Sim fidelity scoring, compatibility matrix, restricted-use gate, and human-review evidence packet.
Pilot offer and boundaries
How to sell without overclaiming.
Sales narrative
SimPatch is the CI/CD pipeline for the physical world: turn field failures into verified ROS 2 patches in days, not weeks.
Risk reversal
Run a qualified pilot on one difficult historical failure: use one ROS bag and target a verified patch candidate plus safety case within 48 hours.
Responsible scope
The pilot focuses on behavior trees, state machines, and safety-margin logic. SimPatch creates reviewable evidence; robotics engineers remain responsible for final safety approval.
Future evidence models
Rigor roadmap.
Monte Carlo
Perturb lighting, start position, reflectivity, and sensor noise to reduce overfitting to one log.
Expected Loss Modeling
Use actuarial expected loss formulas to calculate risk exposure reduced across the fleet.
Formal Verification
Add reachability analysis where possible to support stronger safety arguments than empirical replay alone.
SimPatch is positioned as a pilot-ready proof workstation for robotics field failures: incident evidence, patch replay, safety documentation, ROI, SLA exposure, legal-risk posture, and human-reviewed rollout decisions in one buyer-facing package.