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GLOBAL REGULATORY CONVERGENCE

The world is moving toward execution.

FINMA, BaFin, the EU, NIST, NSA and U.S. government strategies are converging on continuous authorization, Zero Trust, resilience, evidence, accountability and enforceable boundaries. See source by source how immo.quick already unifies these control properties in a deterministic Execution Rights architecture — and where Machine Law goes further.

SICHERHEITSGRENZE · ARCHITEKTUR VOR REAKTION

ZWEI SICHERHEITSGRENZEN. VOR DEM EINTRITT. VOR DEM EFFEKT.

immo.quick trennt Zugang von Ausführungsautorität. Ein Request muss zuerst die jeweilige Eintrittsgrenze passieren; selbst erfolgreicher Zugang autorisiert noch keinen produktiven Effekt.

01 · COREAdmission Boundary

Core setzt einen fail-closed Access Guardian vor die Governance- und Compliance-Pipeline. Scheitert eine erforderliche Validierungsbedingung, erreicht der Request die nachgelagerte Governance-Logik nicht.

02 · SERVERLESSEdge Client Attestation

Die Serverless Edition verlangt bereits am Edge eine gültige Attestation eines registrierten Clients, bevor der Request den nachgelagerten Gate-Pfad erreicht.

03 · ERIExecution Boundary

Zugang ist keine Autorität. Ein produktiver Effekt erfordert ein gültiges, aktuelles und scope-gebundenes Execution Right sowie eine ausführbare Capability.

REQUESTADMISSION BOUNDARYGOVERNED STATEEXECUTION RIGHTREAL EFFECT

Claim Boundary: Ausschließlich die Architektur der immo.quick Serverless Edition wurde dem BSI am 28.07.2026 nachweislich vorgelegt. Core wurde dem BSI nicht vorgelegt. Die Übergabe ist keine BSI-Prüfung, Zertifizierung, Anerkennung oder Bestätigung.

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Quantum Security 🔍 Search Request Access →
SECURITY ARCHITECTURE

Trust must never concentrate in one place.

Institutional execution cannot depend on a single valid thing. A valid signature is not enough, a valid proof is not enough, and a valid software artifact is not enough. immo.quick Serverless Edition is built around a layered security model in which cryptographic validity, contextual validity, relational validity, authoritative state validity and collective state coherence must close together before a critical execution path can become possible.

The result is a security architecture designed to prevent trust from concentrating in one algorithm, one signing root, one proof, one build artifact, one compute instance, one witness or one threshold participant. The architecture remains fully serverless and hardware-independent: hardware may execute cryptographic operations, but hardware does not create authority and no HSM, TEE or proprietary hardware root is required to define system trust.

Request Security Architecture Review → Explore Fortress Baseline 1.2.0
KEIN GÜLTIGER BEWEIS. KEIN GÜLTIGER KONTEXT. KEINE GÜLTIGE BEZIEHUNG. KEIN GÜLTIGER KOLLEKTIVER ZUSTAND. KEINE AUSFÜHRUNG.

Cryptographic validity is necessary. Contextual validity is necessary. Relational validity is necessary. Authoritative state validity is necessary. None is sufficient alone.

FIVE PUBLIC SECURITY DOMAINS

From cryptographic state to software proof, supply chain, distributed execution and threshold privacy.

🔐
Cryptographic Sovereignty
The cryptographic layer combines algorithm agility, hybrid post-quantum key establishment, diversified signature domains and threshold-protected signing roots. Cryptographic policy is treated as a versioned state rather than an invisible implicit execution preference, allowing the system to bind evidence to the exact cryptographic policy that applied at the relevant authoritative ordering point.
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Proof-Bound Software
Production eligibility is tied to the exact software state that has been reviewed and proven. A change to security-relevant implementation state invalidates the applicability of stale proof material rather than allowing an old proof to travel forward with new code.
📦
Proven Software Supply Chain
The software supply chain is part of the execution evidence. Production artifacts are bound to a canonical build state, pinned dependencies, a proven dependency graph, reproducibility checks and build provenance. Proven source code is not treated as equivalent to proven executable bytes.
🔗
Distributed Execution Integrity
Defined critical execution paths can require several independently bound compute participants. Nodes do not vote on legal or governance outcomes. They must bind to the same canonical input and the same authoritative state and produce the same deterministic result commitment. Divergence does not produce a majority decision; it causes the required distributed closure to fail.
🛡
Threshold Privacy & Collective State Coherence
For selected sensitive paths, threshold computation can distribute secret input material so that no single participant is required to receive the whole secret-shared input as part of the protocol. Reconstruction is permitted only when threshold, session, share-set, participant-set and authoritative-state bindings all agree. Mathematical validity alone does not create execution validity.
POST-QUANTUM ARCHITECTURE

Already integrated, not a future migration note.

Post-quantum cryptography is already integrated into the execution and evidence architecture rather than being treated as a future migration note. Algorithm lifecycle and cryptographic policy transitions remain versioned so that cryptographic change can be introduced without rewriting historical evidence.

X25519 + ML-KEM-768
Hybrid key establishment
Ed25519 + ML-DSA-65
Signature binding
SLH-DSA
T=0 pre-committed evidence path

The public claim is deliberately precise: the system is designed to reduce dependence on any single cryptographic assumption and to preserve evidence continuity across cryptographic policy transitions. immo.quick does not claim that a complete software system is ‘unbreakable’ or that post-quantum primitives eliminate every implementation, execution-state, authority or supply-chain risk.

Part of the Fortress Architecture →

ADVERSARIALLY TESTED

Not a paper-only security model.

The current baseline has been subjected to compound adversarial regression scenarios covering proof and build substitution, distributed-state manipulation, threshold-context poisoning, authority-scope misuse, participant-set drift, witness split-brain and stale capability binding.

3
Compound Attack Classes
21
Attack Variants
Regression-Verified
Proof / Build Substitution
Attacks on source-to-execution continuity.
Threshold-Context Poisoning
Attacks on collective threshold context.
Authority / Witness State Manipulation
Valid credentials and authentic artifacts assembled into an invalid state.

Security findings are not deleted from the architecture history. A discovered collective-state weakness in the MPC reconstruction path was retained as a permanent finding, remediated, converted into a broader system invariant and bound to regression verification. That policy is intentional: security maturity is better demonstrated by preserved findings, proven remediation and repeatable regression than by a claim that no weakness has ever existed.

Complete chain tested: view 90/90 end-to-end verification →

FORTRESS ADVERSARIAL VERIFICATION
90 / 90
DEFINED TEST CASES PASSED
12
Attack Families
0
Tested Invalid Paths Accepted
Golden Path Executable
View Adversarial Verification →
FORTRESS BASELINE 1.2.0 · SEALED

The current security state is sealed as a versioned reference.

The baseline binds the required cryptographic, proof, build, deployment, distributed-execution, threshold-computation, adversarial-test and remediation state into a versioned security reference. After sealing, a security-critical change is either identical to the baseline or must appear as a new authorized and provable state.

View Fortress Baseline 1.2.0 →
SICHERHEITSEIGENSCHAFTEN SIND ÖFFENTLICH. SICHERHEITSKRITISCHES IMPLEMENTIERUNGSDETAIL IST KONTROLLIERT.

Regulators, institutional clients, auditors, strategic partners and qualified investors can request deeper review, while exact protocol bindings, state-transition logic, threshold topology, internal proof structures and the sealed definitive baseline remain controlled and, where required, NDA-governed.

View the disclosure process →

Positioning by audience: institutions, regulators, CISOs, investors →

For institutions that need to understand not only what the system claims, but how security-critical execution is made provable, immo.quick provides a structured technical review process with disclosure depth matched to the role and purpose of the requesting party.

ARCHITECTURE DEPTH

Security claims must remain bound to concrete boundaries.

Request Access →