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LabAI

AI agents that can safely operate a real lab.

LabAI is a reference architecture for secure agentic AI: a system where people can ask for complex work in plain language, while authority stays behind bounded personas, OpenBao-protected secrets, typed tools, deterministic workers and reviewable evidence.

Lab operations Secure agents Model economics Evidence by design

What problem does LabAI solve?

A hardware lab is where generic AI agents hit production reality.

The request sounds simple: prepare machines, run a hardware test, recover failures and explain the result. The reality is a moving lab estate with changing host state, powerful out-of-band controls, specialist test scripts, credentials that must stay hidden and long-running work that cannot depend on a chat window.

LabAI turns that messy operating environment into an agentic system with clear actors, bounded authority, recoverable execution and evidence from every run.

Diagram showing lab drift, human test intent, plugins and secrets converging into the LabAI control plane
01

The lab drifts.

Inventory, readiness, power, console access and telemetry need to agree before a run is safe.

02

Intent needs structure.

A tester's goal has to become hosts, timing, parameters, retry rules, evidence collection and report instructions.

03

Authority must be bounded.

The agent needs tools, but secrets, write access and recovery actions have to stay behind policy gates.

What does the solution architecture look like?

A layered control plane, not a chatbot with root access.

LabAI separates conversation from authority. The user-facing edge helps people express intent; the LabAI master owns capability, policy, secrets, inventory, plugins and execution. The model only sees the tools its active persona is allowed to use.

Actor layer: lab technician, hardware tester and test author are treated as different jobs with different authority.

Persona layer: each actor gets a LabAI persona shaped around the work they actually perform.

Capability layer: MCP tools are split into read and write tiers, exposed through allowlists and brokered by the LabAI master.

State and secret layer: inventory is canonical, while OpenBao holds operational credentials behind scoped service tokens.

Execution layer: reviewed briefs go to a worker that claims lab hosts, runs deterministic plugin steps and records evidence.

Architecture diagram of LabAI actors, personas, master control plane, OpenBao vault, inventory, worker, plugins and lab hosts
Actor

Lab technician

Uses the inventory builder and lights-out recovery to keep hardware facts current and lab equipment available.

Persona: lab operations Maintains topology, BMC, KVM, PDU, readiness and recovery truth. Does not define test intent.
Actor

Hardware tester

Writes test briefs: how the test runs, where it runs, when it starts, how long it runs and what recovery means.

Persona: test brief coach Defines systems, hardware, retries, steps to retry, give-up criteria, data transfer, evaluation and reports.
Actor

Test author

Writes the hardware test and the LabAI plugin that tells the platform how that test can be executed safely.

Persona: plugin verifier Makes scripts, tools, parameters, collection hooks and plugin contracts available to testers.

Why has it been done this way?

Because agentic AI risk is mostly architecture risk.

LabAI avoids the common trap of making the model responsible for everything. It lets the model do the things it is good at: interpreting intent, asking clarifying questions, shaping arguments and judging unfamiliar exceptions. Everything repeatable, sensitive or long-running is owned by deterministic services.

Least privilege first Secrets outside prompts Smallest capable model
Diagram showing how LabAI turns AI risks into architecture decisions and operational benefits
Security

Bounded personas

A prompt-injected persona can only see the tools its actor role is allowed to use.

Secrets

OpenBao-backed services

Credentials stay with scoped services instead of chat, prompts, plugins or run briefs.

Performance

Model-tier aware

Small models handle fast paths; expensive reasoning is reserved for ambiguity and review.

Reliability

Worker-owned execution

The worker owns host claims, plugin lifecycle, retries, artifacts and terminal state.

How the run works

Chat creates the contract. Code does the work.

This is the practical difference between a demo and an operating system. The hardware tester writes a brief with the how, where, when, duration, recovery policy, collection targets and reporting needs. Execution then becomes a controlled pipeline with host claims, typed plugin steps, bounded recovery and evidence.

Diagram showing a LabAI test brief moving through review, worker claim, plugin execution, recovery and reporting
  1. 01 Ask

    Human intent enters through the persona that matches the actor.

  2. 02 Brief

    The output names scope, timing, retry limits, data handling and report instructions.

  3. 03 Claim

    The worker reserves managed lab hosts to prevent collisions.

  4. 04 Run

    Typed plugin steps deploy, start, monitor, collect and clean up.

  5. 05 Recover

    Known drift takes deterministic fixes; unknown drift is bounded.

  6. 06 Evidence

    Artifacts, terminal state, reports and action logs remain inspectable.

What can Ignitize solve from this example?

The same architecture discipline applies anywhere AI needs to act.

LabAI is about lab operations, but the capability it demonstrates is broader: turning AI from a risky interface into a secure operating layer for complex technology environments.

The real value is not "add a chatbot." It is decomposing work into actors, designing useful AI personas, securing tool access, choosing the right model path and making outcomes governable.

Diagram showing the LabAI architecture pattern transferring into other secure AI solution domains
Agent design

Turn users and workflows into useful AI personas.

Identify the actors, decompose the work, define what judgement belongs to people, and give each persona only the tools it needs.

Secure integration

Connect AI to real systems without handing it the keys.

Design capability boundaries, vault-backed credentials, policy gates, audit trails and safe escalation paths.

Model economics

Use the right model path for cost, quality and speed.

Separate deterministic work from reasoning work, evaluate smaller models for fast paths, and reserve expensive models for real ambiguity.

Operating model

Make AI outputs reviewable, repeatable and supportable.

Turn conversations into briefs, decisions into logs, exceptions into escalation paths and outcomes into evidence.

Platform architecture

Build AI systems that can survive production reality.

Handle queues, retries, state, failures, permissions, secrets, observability and lifecycle management as first-class architecture concerns.

Risk reduction

Move beyond proof-of-concept AI.

Replace fragile demos with systems that security, operations and engineering teams can understand, govern and improve.

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Need AI agents that are secure enough to operate real systems?

Ignitize designs AI-enabled architectures where the hard parts are handled deliberately: actors, authority, data, secrets, model economics, execution and evidence.

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