AI-powered safety engineering

AI is required to assess AI-powered autonomous systems.

General Autonomy modernizes verification, validation, hazard analysis, and cybersecurity for safety-critical autonomy. Our platform helps engineering teams cover more of the operational domain, trace every requirement, and reach certification faster.

ISO 26262 · ISO 8800 · ISO/PAS 21448 (SOTIF) · ISO/SAE 21434 · UL 4600

Engineered around the standards your certification depends on

ISO 26262 ISO 8800 · AI Safety ISO/PAS 21448 · SOTIF ISO/SAE 21434 UL 4600

Physical AI

Safety engineering for the Physical AI era

Physical AI is the generation of systems that perceive, decide, and act in the real world: vehicles, robots, drones, and industrial machines. When these systems fail, the consequence is physical, not a stack trace on a screen. As foundation models and end-to-end learning move from the lab into embodied products, capability is outpacing our ability to prove safety.

General Autonomy is the safety layer for Physical AI. We assess the full perceive, decide, and act loop, wherever a learning-based system meets the physical world.

  • Perception you can trust, validated against the long tail of real conditions
  • Decisions you can defend, traced from hazard to evidence
  • Actions you can certify, aligned with functional safety standards
  • One assessment loop across every embodied domain
General Autonomy · continuous safety assessment Perceive sensors · fusion Decide world model · planning Act control · actuation Physical world sense act

Physical AI closes a perceive, decide, and act loop with the world. We assess every stage of it.

The problem

Manual safety engineering cannot keep pace with AI-driven autonomy

Learning-based perception and planning operate across an effectively unbounded operational domain. The hazards that matter live in the long tail, far beyond what document-driven analysis and hand-built test suites can reach. Assessing systems of this complexity demands tooling of comparable capability.

Unbounded operational domain

Edge cases multiply faster than engineers can enumerate them. Coverage gaps become residual risk that surfaces only in the field.

Document-driven workflows

HARA, FMEA, and safety cases live in spreadsheets and disconnected documents. Traceability erodes with every requirement change.

Compressed certification timelines

Programs ship on aggressive schedules while assessment effort scales with system complexity. The bottleneck is engineering hours, not intent.

Our approach

AI to assess AI, with engineers in control

General Autonomy applies purpose-built AI to the assessment loop itself: analyzing the system, generating the scenarios that expose its weaknesses, and assembling the evidence that proves it is safe. Every output is structured, traceable, and reviewed by your engineers.

  • Automate the repetitive drafting in hazard and cybersecurity analysis
  • Generate risk-driven scenarios that target coverage gaps
  • Maintain end-to-end traceability from hazard to evidence
  • Keep humans accountable for every safety decision
Autonomous System (AI) Assessment AI analyze · challenge Safety Evidence traceable · auditable Engineers review · approve

A continuous assessment loop: analyze the system, generate scenarios that challenge it, and produce reviewable safety evidence.

Agent Studio

Build traceable AI agents that assist your system engineers

Compose safety agents from one dashboard. Each agent ingests your requirements, design specifications, or test data, reasons against the standard you assign it, and records a defensible trace from every conclusion back to its source.

GenAuto · Agent Studio Traceability live

Inputs

  • RequirementsREQ-001 … REQ-142
  • Design specificationsDS-01 … DS-58
  • Test dataTC-001 … TC-231

Agents 5 active

  • Requirements AnalysisISO 26262 Done 142 requirements parsed · 3 safety goals derived
  • SOTIF ScenarioISO 21448 Running Exploring ODD · 1,240 scenarios generated
  • AI Safety AssuranceISO 8800 Running Evaluating ML component against 58 design specs
  • Cybersecurity TARAISO/SAE 21434 Done 18 threats identified · 12 controls mapped
  • Autonomy Safety CaseUL 4600 Queued Awaiting evidence from 2 upstream agents

Traceability

  • Requirement to evidence REQ-142→HAZ-014→SG-07→TC-231
  • Coverage gap to test ODD gap→S-088→TC-204
86% Operational domain coverage
231 tests linked to hazards

Compose

Connect your requirements, design specifications, and test data, then assemble the agents your program needs.

Assign a standard

Bind each agent to ISO 26262, ISO 8800, ISO 21448 (SOTIF), ISO/SAE 21434, or UL 4600.

Run in the loop

Agents analyze the inputs, surface gaps, and draft work products for engineers to review.

Trace and certify

Every result links back to its source, producing an audit-ready trail your assessors can follow.

The platform

One safety engineering system, three products

G-Assess, G-Sim, and G-Data share a common model of your system, so hazards, scenarios, and evidence stay connected across the entire safety lifecycle.

G-Assess hazard & cyber analysis G-Sim scenarios & digital twin G-Data data & coverage Unified Safety Model — system, hazards, requirements, scenarios Certification-ready safety evidence

A shared safety model keeps hazards, scenarios, and evidence connected from concept through certification.

Engineering outcomes

Measurable impact across the safety lifecycle

The platform is built to move the metrics your program is judged on: effort, coverage, traceability, and time to certification.

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Faster drafting of hazard and cybersecurity analyses
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Bidirectional traceability from hazard to evidence
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Edge-case scenarios generated from risk models
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Safety and cybersecurity standards supported out of the box

Representative target outcomes. Results vary by program, system complexity, and integration depth.

Solutions

Built for the analyses safety engineering actually runs on

Verification & validation

Requirements-driven V&V planning, execution, and coverage tracking.

Hazard analysis

HARA, STPA, FTA, and FMEA with structured, reviewable outputs.

Cybersecurity analysis

TARA and threat modeling aligned with ISO 21434.

Scenario generation

Risk-driven, edge-case scenarios for simulation and test.

Digital-twin evaluation

Validate behavior against high-fidelity twins at scale.

Coverage analysis

Quantify what your operational domain testing actually covers.

Safety cases

Assemble structured, auditable safety-case documentation.

Requirements traceability

Link hazards, requirements, tests, and evidence end to end.

Industries

For the organizations building embodied autonomy

From automotive OEMs and Tier-1 suppliers to robotics and defense programs, safety-critical teams use General Autonomy to assess systems they can defend.

Autonomous Vehicles ADAS Mobile Robots Industrial Automation Agriculture Robotics Mining Automation Warehouse Robots Defense Robotics Construction Equipment Maritime Autonomy Drones

Why General Autonomy

An engineering platform, not a black box

Engineering-first

Built by and for functional safety, V&V, and cybersecurity engineers. The workflows mirror how certification actually works.

Standards-aligned

Outputs map directly to ISO 26262, ISO 8800, SOTIF, ISO/SAE 21434, and UL 4600 work products, so evidence is audit-ready by construction.

Human-in-the-loop

AI accelerates the work; your engineers own every safety decision. Nothing reaches a safety case without review.

Traceable by design

Every hazard, requirement, scenario, and test links to its evidence, with a defensible audit trail.

Multi-domain

One platform spanning automotive, robotics, industrial, and defense autonomy, not a single-vertical point tool.

Deployment-flexible

Integrates with your existing toolchain and data, with options for isolated and on-premise deployment.

See General Autonomy on your safety program

Book a technical walkthrough with our safety engineering team. We will map the platform to your standards, systems, and certification timeline.