Functional safety · AI safety · Autonomy certification

Six standards.One safety framework.

We bridge IEC 61508, the emerging AI-safety family (ISO/IEC TR 5469 · TS 22440 · TS 25223) and UL's certification standards (UL 4600 · UL 3115) into a single, evidence-based safety case — for AGVs, mobile platforms, robot arms and humanoids alike.

The problem

A robot can be safe in the lab and unsafe everywhere else.

Functional safety, AI trustworthiness and certifiability are three different failure modes. A platform can clear one and quietly fail the other two — and the gap only shows up once it's deployed.

The robot fails

A motor controller drifts out of calibration, a bus message is corrupted, a watchdog misses its deadline. Classic malfunctioning behaviour of an E/E/PE safety-related system — random hardware faults and systematic faults in hardware and software.

Covered by IEC 61508

The AI can't be trusted

Every actuator is healthy and every joint is within tolerance, and the arm still grips the wrong part or the AMR still misreads the aisle — because the model's confidence was never calibrated to the situation it met. Insufficiency in perception or decision-making, not a fault.

Covered by TR 5469 · TS 22440 · TS 25223

Nobody can prove it's safe enough

The robot works in the lab and in every demo you've run. A customer, insurer or certification body needs an argument, not a demo reel — evidence of what was tested, what wasn't, and why the residual risk is acceptable.

Covered by UL 4600 · UL 3115

The seam is the risk. A mobile platform can pass every IEC 61508 safety function test and still misclassify a person as a pallet. It can have a well-behaved perception model and still have no assurance case a customer's insurer will accept. Only an argument that spans all three can close the case.

What we do

We bridge six standards into one safety argument

One hazard. Three families of cause. One safety case that traces every hazard through every applicable framework to evidence — whatever the robot is built to do.

Robot-level hazard Identified once, in a single hazard and risk analysis — unwanted behaviour that can lead to harm, whether the robot drives, reaches or walks
IEC 61508

Cause: malfunction

The safety-related control system is faulted. Answered with SIL determination, safety functions, diagnostic coverage and hardware fault metrics.

TR 5469 · TS 22440 · TS 25223

Cause: untrustworthy AI

The system is fault-free but its learned behaviour can't be trusted. Answered with AI risk analysis, safety requirements for adaptive systems and calibrated uncertainty.

UL 4600 · UL 3115

Cause: no assurance case

The behaviour may well be safe, but nobody can show it. Answered with a structured safety case and independent certification evidence.

One integrated safety case Traceable to EU Machinery Regulation 2023/1230 conformity, ISO 3691-4 / ANSI RIA R15.08 acceptance, and customer or insurer due diligence

Who we serve

Four kinds of machine, one safety discipline

The physical form changes what can go wrong. It doesn't change the questions we ask about it.

AGVs & AMRs

Automated guided vehicles and autonomous mobile robots navigating warehouses, factories and hospitals — where ISO 3691-4 and ANSI/RIA R15.08 meet functional safety and AI perception.

Moving platforms

Wheeled and tracked platforms carrying payloads or people, where safety-rated stopping, obstacle detection and autonomy assurance have to work together.

Robot arms

Fixed and mobile manipulators performing tasks alongside people or fully autonomously, where safety functions and AI-driven grasping both need to be proven safe.

Humanoids

Bipedal and human-scale robots combining actuation, perception and decision-making in one platform — the hardest single case for an integrated safety argument.

Engagement

How we work

Consulting that produces artefacts, not slideware. Every engagement ends with something you can hand to a certification body, an integrator or a customer.

Assess

Gap and readiness assessment against IEC 61508, the emerging AI-safety standards and UL's certification requirements at once. A prioritised finding list mapped to clauses, not a generic maturity score.

Architect

Safety functions, decomposition and the allocation of requirements across functional safety, AI safety and certification evidence — so the architecture carries the argument rather than fighting it.

Evidence

A verification and validation strategy that says what each test proves: fault injection, model evaluation, uncertainty calibration and the coverage rationale behind them.

Argue

A structured safety case — goals, strategies, context, evidence — with a defensible residual risk statement, plus support through independent assessment and certification.

Regulatory readiness

The standards are the means. Certification is the end.

Standards conformance is necessary but not sufficient. We shape the technical evidence so it maps directly onto the regulatory instrument or certificate you actually need.

EU Machinery Reg. 2023/1230

The new EU rulebook for machinery, applicable from January 2027, with expanded scope that now explicitly covers autonomous mobile machinery, AI-based safety systems, industrial robots and cobots.

ISO 3691-4

The core Type-C safety standard for driverless industrial trucks and their systems — the reference point for AGV and AMR safety functions, person detection and braking performance.

ANSI/RIA R15.08

Industrial mobile robot safety requirements for the US market, covering the robot itself, system integration and — in its forthcoming Part 3 — the user's operating environment.

UL certification pathway

Where standards conformance turns into a certificate: UL 4600 safety-case evaluation and UL 3115 AI-product certification, mapped against ISO, IEC and NIST frameworks for cross-recognition.

Dr. Saim Simon Perveen
German English French

Business-level fluency

About

Dr. Saim Simon Perveen

Build your trustworthy system with me

safeautonomy is an independent consultancy for the safety of robotic and autonomous systems. We work with robot manufacturers, systems integrators and logistics and manufacturing operators at exactly the point where functional safety, AI safety and autonomy certification stop being separate disciplines.

  • Safety concepts and safety cases for AGVs, mobile platforms, robot arms and humanoids
  • Independent review and certification readiness before it costs you a deployment or a contract
  • Training and coaching that leaves your team able to run the process without us

Where we work

Based in Wolfsburg, working across the world

Headquartered inside one of Europe's largest concentrations of industrial robots, AGVs and automated logistics — Volkswagen's manufacturing plants and their supplier base — and working with clients well beyond it, on site wherever a programme needs us, not just reviewing documents from a distance.

Home base

Wolfsburg, Germany

Headquartered in one of Europe's largest robotics and automation manufacturing hubs.

Global reach

Worldwide

Remote-first engagements across the EU, North America and Asia.

Get in touch

Let's find out where your safety argument breaks

A 30-minute call is usually enough to tell whether your gap is in functional safety, in the AI evidence, in the certification case — or in the traceability between them.

Phone / WhatsApp

+352 661 553 282

Based in

Wolfsburg, Germany — working worldwide