THE APPROACH

Every AI agent is a potential liability. We build systems that assume they will fail.

Zero-trust architecture for autonomous AI. Every output verified. Every agent sandboxed. Every decision audited.

Zero-trust AI architecture diagram

97%

of AI failures are caused by context collapse, not model errors

McKinsey, 2024

$4.2M

average cost of an AI-driven data breach

IBM Cost of a Data Breach 2024

68%

of autonomous agent deployments exceed intended scope within 30 days

Stanford HAI, 2024

more likely to catch critical failures with adversarial review

Internal benchmark

100%

deterministic gate coverage before any agent reaches production

Sarolta standard

THE AXIOM

NOT TRUSTED

Even your best-performing agent. Every output is verified independently, every time.

NOT ASSUMED SAFE

Any output that hasn’t been verified by a deterministic gate. Confidence scores are not proof.

NOT ALLOWED TO DRIFT

Any agent that hasn’t been re-tested after a model update. Sandboxing enforces scope boundaries.

NOT SHIPPED WITHOUT PROOF

Any system that hasn’t cleared every deterministic gate with a passing score. 100/100 required.

BEYOND ZERO TRUST

AI systems that prove themselves — or don't ship.

Zero trust for networks means no device is trusted by default. We apply the same logic to AI agents: no output is trusted until deterministically verified.

This isn’t just a security posture. It’s a reliability framework — one that ensures every AI system we build delivers on its promises in production.

THE PROBLEM

LLMs hallucinate — including when generating code

A model that scores 95% on benchmarks still fails 1 in 20 times. In autonomous pipelines, those failures compound.

THE RISK

Agents exceed their intended scope

Without hard boundaries, agents operating autonomously drift into unintended system access, data exposure, and cascading failures.

THE CONSEQUENCE

Trust erodes faster than it builds

One high-visibility AI failure can set back adoption across an entire organisation — and the business case that came with it.

KEY CONCEPTS

The four pillars of safe AI deployment

Each concept addresses a different failure mode in autonomous AI systems.

Zero-Trust Agent Architecture

CONCEPT 01

Zero-Trust Agent Architecture

Every agent operates within a permission-bounded sandbox. No agent can access systems, data, or other agents outside its defined scope — regardless of what the model requests.

Adversarial Review Pipeline

CONCEPT 02

Adversarial Review Pipeline

Every output is reviewed by an independent model with no knowledge of the original agent’s intent. Disagreement triggers escalation. Agreement closes the loop.

Deterministic Quality Gates

CONCEPT 03

Deterministic Quality Gates

Before any agent reaches production, it must clear a sequence of deterministic tests — not LLM-evaluated, not human-reviewed, but mathematically verified pass/fail criteria.

Sandboxed Execution Environments

CONCEPT 04

Sandboxed Execution Environments

All agent execution happens in isolated environments with no persistent state, no cross-contamination, and full audit trails. Every run is reproducible and accountable.

THE REALITY

What "responsible AI" actually requires

Most AI deployment frameworks optimise for speed. Ours optimises for verifiability — because the cost of a silent failure in production vastly outweighs the cost of a thorough gate.

Standard AI delivery

  • ✗ LLM judges its own output
  • ✗ Vibe-checked by a human reviewer
  • ✗ Deployed if tests pass “mostly”
  • ✗ Scope drift discovered in production
  • ✗ Failures investigated after the fact

Sarolta approach

  • → Adversarial model reviews every output
  • → Deterministic gate: 100/100 or no ship
  • → Sandbox enforces hard permission limits
  • → Scope defined in spec, verified in test
  • → Every failure mode anticipated in spec
Build TypeScore RequiredCoverageAdversarial Review
Proof of Concept80/100Core paths onlyAdversarial review optional
MVP90/100All happy paths + 2 edge casesAdversarial review required
Production100/100Full coverage + adversarial scenariosMandatory, multi-pass
Mission-Critical100/100Exhaustive + chaos testingMandatory + independent audit + human sign-off

PIPELINE ARCHITECTURE

Zero Trust, Zero Assumptions.

The intelligence in this pipeline isn’t only in the models — it’s also in the structure. This is a neurosymbolic system: probabilistic AI generates, deterministic gates verify. Every stage enforces a hard constraint: no output advances until it passes, no agent is trusted because it performed well last time, no exception is made for time pressure or confidence scores.

SPEC PHASE RED PHASE GREEN PHASE LATE DISCOVERY PHASE coverage gaps · bugs · regressions INTEGRATION & DEPLOY DEV INPUTPRD 01Spec Writingbehaviour & scope 02Spec ReviewAI + adversarial check GATESpecScore≥req?delta human review score < req — loop back to spec write 03Planningscope & decompose 04Test Writingtests before code 05Test Reviewadversarial check GATETestsScore≥req? score < req — loop back to test writing GATEGreenPre-Check 06 — 16% of dev timeCode Generationparallel where deps allow 07Reviewadversarial review GATECodeScore≥req? 08Test Executionrun all tests GATETestsScore≥req? code review fail — regen tests fail — regen LD-1LD Specs:Bugs & Gaps LD-2Write Testsgap-filling tests LD-3Implementfix & fill gaps LD-4Run Testsverify coverage LD-5Reviewadversarial check GATELateDisc. score < req — revisit gaps 09ImplementationReviewadversarial code review GATEImpl.Score≥req? 10Integrationmerge & regression 11Integration Reviewsystem & regression GATEInteg.Score≥req? score < req — loop back to integration 12 DONEDeploystaged rolloutearned zero trust — every stage validates inputs independently — no implicit trust between pipeline steps

01

Specification Gate

Every agent begins with a machine-readable spec. The spec defines scope, inputs, outputs, and failure modes. No spec = no pipeline entry.

PASS: Spec complete and unambiguous

02

Adversarial Review Gate

An independent model reviews every output against the spec. It has no knowledge of the implementing agent’s intent — only the spec and the output.

PASS: Output matches spec, no drift detected

03

Deterministic Quality Gate

Mathematical pass/fail criteria — coverage thresholds, type safety, boundary tests. LLM confidence scores are not accepted as evidence of correctness.

PASS: 100/100 deterministic score

QUALITY GATES

What happens at each gate

Gates are not checkpoints. They are hard stops. An agent that fails a gate does not proceed — it returns to the previous phase with a detailed failure report.

  • Spec Gate — validates completeness, consistency, and testability of the machine-readable spec
  • RED Gate — verifies that failing tests exist and correctly target the spec’s requirements
  • GREEN Gate — confirms all tests pass, no test tampering, no workarounds
  • Inquisitor Gate — independent adversarial review at each major phase transition
  • IMPL Gate — full integration review: coverage, standards, security surface

Every gate score is recorded. Every failure is traceable. Nothing is overridden.

Why quality gates matter
Why specification gates matter

THE METHODOLOGY

Three disciplines, one standard

Our methodology isn’t a framework we invented — it’s the application of rigorous software engineering disciplines to the unique challenges of autonomous AI systems.

TDD

Test-Driven Development

Tests are written before implementation. Every feature is defined by a failing test that must pass before the feature is considered complete. No test = no feature.

Applied to: all agent logic, tool integrations, data transforms

EDD

Evidence-Driven Development

No deployment without deterministic evidence of correctness. LLM confidence, code review, and human intuition are not evidence. Gate scores are.

Applied to: every pipeline phase transition, all production releases

SDD

Spec-Driven Development

Every system begins as a machine-readable specification. The spec is the contract — between the agent and its environment, between the build and the business requirement.

Applied to: all agent architectures, API contracts, data pipeline definitions

IN PRACTICE

How a build actually runs

The pipeline isn’t theoretical. Every AI system we build goes through it — from a simple data transform to a multi-agent orchestration layer.

STAGE 1 — SPEC & DESIGN

Define before you build

Before a single line of code is written, we produce a machine-readable specification that defines every expected behaviour, input/output contract, and failure mode.

  • ✓ Scope boundaries documented in XML spec format
  • ✓ Adversarial scenarios included in spec (not added later)
  • ✓ Spec reviewed and signed off by Inquisitor agent
  • ✓ Gate thresholds set for build type (POC / MVP / Production)
Configurable pipeline stages
Sandboxed execution environment

STAGE 2 — BUILD & VERIFY

Build inside the gates

Development happens inside the pipeline. Failing tests are written first. Implementation follows. Every output is reviewed by an adversarial agent before the gate score is calculated.

  • ✓ RED phase: failing tests written and verified (R-INQ gate)
  • ✓ GREEN phase: implementation written to pass tests (G-INQ gate)
  • ✓ IMPL phase: full integration review and coverage audit
  • ✓ Final gate: 100/100 deterministic score required to deploy

CORE PRINCIPLES

The principles that don't flex

These aren’t guidelines. They’re the non-negotiables that define every system we build — the architectural commitments that make safe AI deployment possible at scale.

Verification over confidence

PRINCIPLE 01

Verification over confidence

An LLM that’s 99% confident is still wrong 1% of the time. We replace confidence with proof — every output verified against a deterministic standard.

Adversarial by default

PRINCIPLE 02

Adversarial by default

Every review assumes the output is wrong until proved otherwise. Adversarial posture catches failures that optimistic review misses.

Scope as architecture

PRINCIPLE 03

Scope as architecture

Scope isn’t a project management concern — it’s an architectural constraint. Agents that can’t exceed their scope are agents that can’t cause cascading failures.

Determinism over probability

PRINCIPLE 04

Determinism over probability

Where probabilistic AI output meets your system boundary, we insert a deterministic gate. Probability ends at the edge. Determinism continues beyond it.

sarolta

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