Functional Safety · Edge AI · Cybersecurity

Trustworthy AI for safety-critical systems.

I help teams in safety-critical industries bring AI and connected systems to production — safely and securely. From hazard analysis and safe-state architectures to secure boot and edge-AI monitoring, backed by a rigorous V-model process and real hardware.

Services

What I do

Five overlapping disciplines — because a safe system is also a secure one, and AI does not get a pass on either.

01

Edge AI

On-device & embedded AI: model integration, edge inference on heterogeneous SoCs (e.g. STM32MP1), pragmatic MLOps.

02

Functional Safety

IEC 61508 / ISO 26262 — HARA, safety concepts, safe-state architectures, V-model, safety cases.

03

Cybersecurity

IEC 62443 / ISO 21434 — secure boot, TrustZone/OP-TEE, threat modeling (TARA), SBOM, secure update.

04

Safety & Security for AI

ISO/IEC TR 5469, ISO/PAS 8800 — monitoring 'safety island' architectures, OOD/uncertainty gating, assurance cases.

05

Consulting & Implementation

From assessment and gap analysis to hands-on implementation and verification on real hardware.

Industries

Safety-critical, across sectors

The standards differ; the discipline does not. I work across regulated, high-consequence domains.

AutomotiveMedTechIndustrial / MachineryRoboticsAerospace / AviationDefenseRail

Selected work

Evidence, not adjectives

Representative work. The flagship is a working demonstrator, built on real hardware in the style of the standards it references.

Edge-AI Safety Island

In progress

A Cortex-M4 (Zephyr) safety island supervising an edge-AI workload on a Cortex-A7/Linux (STM32MP157F-DK2). The AI stays untrusted; an independent monitor forces a safe state on AI failure or out-of-distribution input. Built in the style of IEC 61508 + ISO/IEC TR 5469 with a full V-model artifact set.

Edge AIIEC 61508ISO/IEC TR 5469ZephyrOpenAMP
Demonstrator — not a certified product.

Upstream Zephyr RTOS board support

Submitted

Contributed STM32MP157F-DK2 board support to the upstream Zephyr RTOS project (PR #117118) — hardware-verified via the remoteproc framework.

Open sourceZephyrSTM32

How I work

Evidence-driven, along the V-model

A process auditors recognize — traceable from requirement to proof. No slideware; working systems and artifacts you can take into an assessment.

01

Assess

Gap analysis against the relevant standards. We locate the real risks and the shortest path to credible evidence.

02

Concept

Hazard and threat analysis (HARA, TARA), safety & security concepts, safe-state architectures — designed to be verifiable, not just documented.

03

Build

Hands-on implementation on real hardware: secure boot, safety monitors, edge-AI integration. Working systems, not slideware.

04

Verify

Verification & validation along the V-model, with a traceable artifact set: requirements → design → tests → evidence.

05

Assure

Assurance / safety cases and a clean handover, so your team can maintain, extend and certify the system.

About IGNAO

Independent engineering practice

IGNAO
[ Portrait photo ]

IGNAO is an independent engineering practice at the intersection of functional safety, cybersecurity and edge AI — helping teams make machine-learning and connected systems dependable enough for safety-critical use.

My approach is hands-on and evidence-driven: real hardware, standards-grounded process, and an artifact set you can take into an audit. The AI is treated as untrusted by default; safety and security are architected in, not bolted on.

Standards fluency
IEC 61508ISO 26262IEC 62443ISO 21434ISO/IEC TR 5469ISO/PAS 8800

Contact

Let's talk

Have a safety- or security-critical AI or embedded challenge? Tell me what you're building and where it needs to be dependable — I usually reply within a couple of working days.