Choose what you want to verify
The overview shows the governed entry point: supported verification goals are routed only to installed, proof-capable scenario packs instead of arbitrary execution.
Independent ResearchChoose a small public finite Gaussian scenario and follow it through a deliberately bounded certification workflow. The protected TP-CERT engine is represented as a black box: this page does not call it, expose it, or reproduce its proof machinery.
Two selected screenshots show the product surface without exposing protected mathematics, proofs, keys, customer data or internal evidence payloads.
The overview shows the governed entry point: supported verification goals are routed only to installed, proof-capable scenario packs instead of arbitrary execution.
A concrete matrix scenario illustrates the product discipline: declared domain, exact input structure and explicit claim are visible before a certification action is permitted.
The purpose is architectural: to show what TP-CERT is meant to do without publishing how the internal certification core proves its obligations.
A small synthetic finite geometry expressed only through public-safe input metadata.
Capability routing, exact obligations, certification logic, proof/evidence internals and protected research remain behind the boundary.
A narrow result surface: status, scope, assumptions, nonclaims, input hash and release label — not the internal proof.
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Keeping these surfaces separate is intentional. A visualization, a specimen flow and the protected certification system answer different questions.
Shows small finite Gaussian matrices and ordinary numerical sensitivity. It is a mathematical illustration, not a certification result.
Shows request and bounded-result semantics using deterministic fixtures. It does not execute or emulate the protected TP-CERT proof machinery.
Internal certification infrastructure, protected capability bindings, evidence, proof material, keys and operational controls remain outside the public website.
TP-CERT is designed around bounded claims. A result is meaningful only together with the exact capability, admitted input family, assumptions, scope, evidence status and explicit nonclaims. The public demonstrator shows that structure without disclosing the protected derivation.