beyond today's platform — atve research

Governed, provable autonomous exposure validation.

The research frontier is not more automation. It is autonomy that stays within agreed limits, acts only on evidence, and leaves a record an auditor can check.

Our research team is based at Oxford Science Park, UK, and works with our offensive-security team in Bangkok.

Provably bounded autonomy Deterministic scope Calibrated trust Re-executable evidence
Our research question

"How can an AI pentest engine act autonomously within bounds it can prove — hard limits on what it may touch, and a calibrated limit on how often it may be wrong — while still recognising when it should not trust its own conclusion?"

Enterprises and regulators will not hand security decisions to AI without proof they can trust. Today, that call relies on a person reading a risk register. We are building the method that makes trust measurable — and we have refined our language along the way. The right claim was never a blanket "deterministic safety"; that overstates what any system with a model in the loop can promise. The precise claim has two parts: determinism governs the boundary — what the system is allowed to touch — while trust in a finding is a calibrated probability. Together, those two pillars are what "provably bounded" actually means.

the reasoning core

ATVE: the reasoning core behind EchoStrike.

Start with the architecture. ATVE is a research layer that learns how to think about threats, not just run attacks — a closed loop around Crimson Nexus, the memory of every proven finding. Three research bets each power one step of that loop.

CRIMSON NEXUS proven findings observecausal model reasonmeta-reason validatere-execute learngenome

Causal cyber world model · powers Observe

Explains why an attack path exists and which single intervention would collapse it — cause and effect across the chain, not correlated signals.

Meta-reasoning & the determinism bound · powers Reason

Turns "how far can I trust this?" into a calibrated, checkable bound — not a gut feeling. Can the system recognise when its own confidence should not be trusted?

Cyber reasoning genome · powers Learn

Learns which execution paths earn trust — and which to redesign — from every proven engagement, so the next environment is investigated better than the last.

The loop: observe the environment through a causal world model built from Crimson Nexus, reason about what to try and how far to trust it, validate by re-execution, then learn — writing each proven episode back into Crimson Nexus. The moat moves from automation, to reasoning quality, to accumulated experience. ATVE is patent-pending.

the open research gap

Measure, decide, prove.

AI can already find attacks. What nobody can yet do is prove when it is safe to let it act alone. That proof has three steps — and the platform already has the groundwork for two of them.

1 · Measure

How reliable is this action?

Score each AI action on how predictably it behaves on the path that produced it — not the model as a whole.

groundwork in EchoStrike
2 · Decide

How much freedom has it earned?

Turn that score into a level of autonomy: act alone, collect more evidence, or hand to a human. This is the step we are building.

our research
3 · Prove

What does the auditor see?

A record of every decision, with the attack re-run on demand so the proof can be checked by a third party.

groundwork in EchoStrike

The platform already has the groundwork for steps 1 and 3: evidence gates that can refuse a finding, and re-test on demand. Turning that into a measured score and a defensible, auditable authorisation is the research — and what would let customers trust AI to defend them.

the method

We score the path, not the finding.

The same result reached two different ways earns two different levels of trust. So trust is a property of the execution path, not of the finding — and we make it a number: the determinism bound B(π)B(\pi).

B(π)  =  P[ the finding is wrong  ∣  the path π that produced it ]B(\pi) \;=\; P\big[\, \text{the finding is wrong} \;\big|\; \text{the path } \pi \text{ that produced it} \,\big]
the probability a finding is false, conditioned on the exact path that produced it — not on what kind of finding it is

An example makes it concrete: a finding is not trusted because it is "an SQL injection." It is trusted by how it was proven, and how far that proof held. The bound moves in exactly three ways:

1

A gate sets it

A deterministic check establishes the property. Trust starts near-certain, at a small gate residual error ε ≈ 0.

2

Reasoning degrades it

Each uncertain AI step adds measured divergence d. Trust decays with every step that cannot be checked.

3

Re-execution restores it

Replaying an already-proven check resets trust to the gate floor — with no new model calls, however far it had drifted.

B(π)  =  1−(1−ε) ⁣ ⁣∏steps since the last gate ⁣ ⁣(1−d)B(\pi) \;=\; 1 - (1-\varepsilon)\!\!\prod_{\text{steps since the last gate}}\!\!(1 - d)
ε — gate residual error (≈ 0) · d — divergence added by each AI step · ∏ — over all steps since the last gate

Re-execution is the only operator that resets the bound. A committee of models cannot: agreement only stacks more correlated, uncertain steps. That is the precise reason replaying a proven attack beats any vote among models — and why the full derivation, with proofs, lives in the companion paper.

from a number to a decision

A calibrated bound decides how much autonomy each action has earned.

Calibrated against re-execution ground truth — did the proof actually re-run and still hold — the bound drives three graduated outcomes, rather than being asserted alongside them.

Execute

The bound clears the impact-indexed threshold and the action is in authorised scope — act autonomously.

B(π) ≤ θ ∧ in scope

Investigate

A real lead, but the bound can still be tightened by collecting more evidence at acceptable risk.

θ < B(π) ≤ θ⁺

Escalate

Trust, scope or policy needs a person — hand it to a Pentest Studio expert.

bound loose · scope · policy

The threshold θ tightens as impact rises: a higher-stakes action must clear a tighter bound. Calibration is tuned so that, among the findings the system auto-executes, the error stays below a target δ — a finite-sample, distribution-free guarantee. Too little evidence, and it blocks and says so. "Defensible autonomy, not maximum autonomy" becomes a number — the system acts only where the record earns it.

why this is the right foundation

Computable, measurable, auditable — and adaptive.

Architecture tells you how the system is organised. This measurable core is what lets every claim be checked and every path improved.

Computable

No human in the measuring loop

The bound is computed from measured step-divergence and gate error.

B(π) from measured d, ε
Measurable

A guarantee you can state and test

A calibrated error limit on auto-executed findings — not a confidence vibe.

P[ wrong | act ] ≤ δ
Auditable

Evidence re-runs on demand

Stale proof or a failed re-run forces a stop, not a silent pass.

re-execute → ✓ or STOP
Adaptive

Rank the flaky paths, add a gate

Put a gate where it buys the most trust; thresholds flex with risk.

rank Δ per path

These four properties map directly onto the controls regulated buyers ask for. For a vendor already holding ISO 27001 and ISO 9001, ISO/IEC 42001 is the adjacent standard, and each of these is a concrete control for it.

ISO/IEC 42001 — AI management system EU AI Act, Article 14 — human oversight NIST AI RMF — Measure · Manage · Govern ISO/IEC/IEEE 15026-2 — assurance case
research & ip track

Putting the reasoning core up for peer review.

The work is published where outside experts can check it — a public architecture paper, a formal companion paper, a peer-reviewed survey and a patent-pending engine.

Published 2026

Towards adaptive and continuous offensive security: a survey of AI-driven threat validation techniques

Lead-authored by Dr. Varin Khera. A peer-reviewed map of the field this programme builds on.

Khera, Sunil, Mer, Kointarangkul & Diwan · Elsevier Array, vol. 30, 100843 · 2026
Public paper

EchoStrike White Paper — the architecture, with its measurable core

Why the platform refuses to treat a model's guess as a finding, and the determinism bound that makes bounded autonomy measurable.

SECStrike · Version 1.1 · October 2026 · read online · PDF
In preparation

Determinism-Bounded Authorization — the formal companion paper

The computational layer under ATVE: the determinism bound, calibrated graduated authorisation, deterministic scope enforcement and a re-executable assurance record. A concept and preliminary-work paper; experiments follow on the EchoStrike codebase.

Taeprasartsit & Khera, SECStrike · 2026 · read online · PDF
Patent-pending

Adaptive Threat Validation Engine (ATVE)

The control architecture behind evidence-gated, provably bounded autonomy.

USPTO Application No. 63/814,466
research collaboration

Work with the research program directly.

Hiring into it now. Four ways in:

Joint publications

Co-author work on the determinism bound, causal cyber world models and human–AI escalation.

Visiting researchers

Spend a term embedded with the team at Oxford Science Park. PhD students, postdocs and faculty on sabbatical all welcome.

Dataset access

Work with attack-graph datasets under NDA, prepared so that no client data is exposed.

PhD & postdoc sponsorship

Sponsored research positions aligned with the ATVE agenda.

This page describes research direction and a measurable foundation under active development, not shipped capability — the determinism bound, graduated authorisation and the assurance record are research, not production features of the EchoStrike product today. It is kept intentionally separate from the product claims made elsewhere on this site.

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