Data sheet Revised

AI & Machine Learning in Certified Systems

Adopting AI without breaking your evidence chain, and preparing machine-learning functions for certification under guidance that is still being written.

Standards
DO-178C and DO-330 for AI in the lifecycle; EASA Concept Paper Issue 2 and ARP6983/ED-324 (in development) for AI in the product
Assurance
Readiness at any level; no accepted means of compliance exists for machine learning in airborne software today
When to call us
Before AI tools touch certification evidence, or before a bid that includes an ML function
Delivery
Mostly remote, on-site as needed

Scope

Two doors, one question: what does this do to my evidence?

AI is entering regulated engineering from two directions at once: as a productivity tool inside the lifecycle, and as airborne functionality that must itself be certified. For the first, we help teams adopt AI-assisted engineering where it genuinely helps, requirements analysis, traceability upkeep, review preparation, test generation, while keeping every certification claim traceable to a qualified, reviewable source. The honest architecture is "AI proposes, a qualified person disposes": a non-deterministic tool has no plausible DO-330 qualification path today, so the review that earns the objective stays human.

For machine-learning functions bound for the aircraft, we advise on certification readiness under the emerging guidance, the SAE G-34 / EUROCAE WG-114 work and the positions taken by the authorities, with the same discipline we apply to DO-178C: understand what evidence will be asked for, plan for it early, and never claim more than the current guidance supports.

Deliverables

Evidence you can show, whichever door you came through.

Document What it is Door
AI-use policy Which lifecycle activities may use AI, under which controls, and the answer when a delegate asks "was any of this AI-generated?" Lifecycle
Evidence-chain review Where AI output enters the evidence and where a qualified review re-establishes credit Lifecycle
Tool strategy Per tool: productivity aid below the evidence line, or a qualification obligation it cannot meet Lifecycle
Readiness assessment The ML function against the EASA Concept Paper's objectives and the ED-324 draft direction Product
Operating domain The operating design domain characterised, written down and argued, so "complete" data means something Product
Data plan The data set as a certification artifact: provenance, coverage of the domain, labelling, versioning, defects Product

The W-shaped process

Learning assurance restructures the V.

For a learned function, the data set carries the requirement, so the lifecycle gains a second descent and ascent.

  1. 01 Requirements and domain System requirements and the operating domain the function claims to work in.
  2. 02 Data management Data collected, labelled, versioned and shown to cover the domain.
  3. 03 Learning process Training managed as a process with controlled inputs, not an experiment.
  4. 04 Trained-model verification The model's performance on data it has not seen, argued statistically.
  5. 05 Implementation and inference verification The inference engine, conventional and certifiable, verified against the trained model.
  6. 06 Integration The learned core inside a conventional envelope that owns the worst case.

What transfers from DO-178C

Four answers, from fully to not at all.

  • Planning, CM, problem reporting Transfers fully; standard-agnostic, and needed more here, not less.
  • Requirements-based verification Transfers partially; the system-level requirements still apply, the model's internal behaviour is not specified by them.
  • Traceability Reframed; traces now run to and through data sets, not only to code.
  • Structural coverage and modified condition/decision coverage (MC/DC) No analogue; the artifact was never hand-written, so there is nothing equivalent to have covered.

Field notes