From questions
to evidence. Faster.
Autonomous Engineering Operations

Autonomous Engineering Operations

Make physical engineering organisations learn faster.

make engineers type fasterput AI into engineeringautomate everything

Continuously determine the fastest defensible path from an engineering question to trustworthy physical evidence — and organise the enterprise to execute it.

Try the demo — no sign-in →Sign in to the control roomNot sure? Choose your pathDemo: full control room in your browser, synthetic programmes, state stays on your device. Control room: shared state, Copilot with local or cloud models, Cloudflare Access sign-in (one-time code or Microsoft Entra ID).

Optimise the engineering learning process

Treat every question, test, supplier, rig and decision as one connected graph and optimise the sequence, not the individual task.

Move from questions to trustworthy evidence faster

Compress non-active time — queues, waiting, re-work — while keeping every mandatory inspection, commissioning, review and physical test intact.

Coordinate people, agents, equipment and tests

Organise the enterprise around the next best learning step. AI proposes, evidence substantiates, policy authorises, humans decide.

Start where it matters to you

Choose your path

Pick the closest description. Each path opens the demo with a guided route through the right modules.

The demo and the control room are the same application. The demo keeps state in your browser and has no model connection; the control room persists state for the team and routes the Copilot to a local model on HyFlux hardware or to Z.ai, xAI, OpenAI or Anthropic — never with keys in the browser.

What the system optimises

The system optimises a graph

The Engineering Operations Graph

  • Questions, requirements, decisions, tasks, people, agents, designs, parts, suppliers, purchases, equipment, facilities, configurations, tests, data, claims, evidence and learning are all nodes.
  • Each node carries state, cost, time, authority, provenance and confidence.
  • Each edge represents dependency or evidence.
  • The question the system answers: what sequence of authorised changes to this graph minimises expected Time to Validated Learning while satisfying engineering, safety, evidence, resource and corporate constraints?
Engineering Operations Graph diagram
How it is measured

Measure learning velocity

Validated Learning Velocity

LV =
Decision-relevant validated information gained
Elapsed time × resources consumed
TVLTime to Validated Learning: question → accepted evidence
TVDTime to Validated Decision: question → engineering decision
£ / VLCCost per validated learning cycle
VLC / monthValidated learning cycles per month

Start with TVL, TVD, £/VLC and VLC/month — then introduce information value as the system learns.

Where to start

Start with FLOW

Engineering Learning Cycle Optimisation — why is your next engineering decision taking this long?

Current

Question → validated evidence71 days
Value-producing engineering13 days
Non-active time58 days

AEO proposed

Question → validated evidence38 days
Engineering13 days
Necessary / remaining latency25 days
1 Observe2 Recommend3 Coordinate4 Execute

Turn the dashboard into an operating system.

SUPERCOOL example

Highest-value thing to learn next

Imagine SUPERCOOL has 30 unresolved technical questions.

The system evaluates

  • programme consequence
  • uncertainty
  • dependency structure
  • certification significance
  • cost of evidence
  • experiment duration
  • facility availability
  • reusable existing evidence
  • information value
  • likelihood of invalidating architecture
  • downstream decisions unlocked

It might conclude

  • Do not optimise the motor winding next.
  • Resolve cryogenic heat-transfer uncertainty first.
  • £7,800 test in 9 days.
  • Could affect £430k of downstream work.
  • Facility slot available Thursday.
  • Predicted avoided work if hypothesis fails: 47 engineering days.
This is not project management.It is machine-assisted direction of the engineering learning process.
The autonomy engine

Assurance earns autonomy

TRUST, GATE and CONTROL are not a governance layer beside AEO. They are the mechanism by which it is allowed to do more.

TRUST — is it independently defensible?

Every AI output is a GENERATED claim until deterministic checks — units, physical envelopes, contract consistency, configuration applicability, evidence reproduction, model agreement — return a verdict: VERIFIED, VERIFIED WITH LIMITATIONS, UNVERIFIED, CONTRADICTED, INSUFFICIENT EVIDENCE, OUTSIDE ENVELOPE, HUMAN REVIEW REQUIRED. Two LLMs agreeing is not verification.

GATE — is it authorised?

A machine-readable authority model says who may propose, approve, execute and who stays accountable, per action class. Twelve policy decision points run before every action; refusals are recorded in a hash-chained ledger, not discarded.

CONTROL — can it execute safely?

Agent Passports and a capability registry bound what an agent may touch, spend and change. Blocked, degraded or unqualified capabilities cannot be invoked autonomously. No physical action is connected.

L0 ObserveL1 RecommendL2 CoordinateL3 ExecuteL4 Consequential

An agent acts only where earned trust (from verified claims, completed loops and detected attacks) and delegated authority both cover the consequence of the action. Assurance debt records every obligation created when speed is bought with assumptions — and demo evidence is never silently promoted to certification evidence. The red-team panel injects thirteen attacks — fabricated evidence, stale configuration, wrong units, prompt injection, permission escalation, circular AI verification, physically impossible answers — and shows which mechanism caught each one.

Why it compounds

The real moat

LEARN + TWIN

  • Supplier A
  • Component family X
  • 12 engineering programmes
  • 47 configurations
  • 136 tests
  • 18 unexpected outcomes
  • 4 recurring failure mechanisms
  • known measurement uncertainty
  • actual supplier lead-time distribution
  • successful mitigations
  • certification applicability
The organisation develops an empirical model of how it actually learns.Agents will commoditise. Structured learning history will not.
LEARN + TWIN structured learning history
What is running today

Eleven modules, one graph

The control room is a working integrated prototype over one deterministic domain model.

FLOWFastest defensible route; 16 route comparison; proposals and committed plan
SOURCEAvailable / suitable / approved; controlled local RFQ drafts
RIGTest-system forecasts; shared resources; six readiness conditions
TESTPredeclared evidence contract; supported / refuted runs; CSV entry
DATAVerbatim raw data, SHA-256, derived analysis, independent checks
LEARNLearning objects with evidence, uncertainty, applicability, limitations
OPTIMISE30-question ranking on 11 criteria; START / BOOK / HOLD / DO-NOT-START plan; assurance debt by route
TWINArticle identity, revision, lineage; invalidation on change
GATEAuthority model, autonomy levels L0–L4, policy decision points, refusal ledger
CONTROLEnforced Agent Passports, capability registry, spend caps, blocked external actions
TRUSTClaim register with epistemic origin, deterministic verifier, 13-attack red team, earned trust
COPILOTLLM advisor over the graph — local Ollama, Z.ai, xAI, OpenAI or Anthropic. Proposes only.
Boundaries stated plainly. Seeded programmes, suppliers, costs and measurements are synthetic. Forecasts are deterministic model outputs from invented assumptions, not measured results. No equipment, supplier, PLM/ERP/QMS system or regulator is connected; no purchase order, email or release is issued. Observed physical TVL remains unmeasured until a real loop runs.
The six-slide summary

Read the deck

From questions to evidence. Faster.

Walk one full loop: propose a route, approve it, commission, test, verify, decide, learn.

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