Trust Center · v0.6.0 · Controlled Evaluation

Security, reliability, transparency.

ProvableCORE® is engineered for institutional buyers who cannot afford to guess about their infrastructure. This page documents every layer of our security, availability, data handling, and operational posture. What you see here is what auditors see.

Current status

99.8%
QA Pass Rate
99.5%
Uptime SLA (Pro)
80ms
Verify Latency p50
0
Security Incidents YTD
EU
Data Residency
7 yr
WORM Retention

Design philosophy

Built on primitives that already earned institutional trust.

ProvableCORE® was not designed to invent new cryptography. It was designed to assemble components that have been battle-tested for decades — Merkle trees (RFC 9162, in production since 2013), RSA-PSS (FIPS 186-4), TLS 1.3, GCP KMS Hardware Security Modules, WORM storage — into a governance kernel that banks and regulators can verify themselves, without trusting us.

Every component on this page is either a published standard, a certified service from a Tier-1 cloud provider, or a verifiable open-source library. We do not ask you to trust us. We ask you to verify the record.

Infrastructure and data residency

Layer Provider Region Certification
Compute Google Cloud Run europe-west1 (Belgium) ISO 27001, SOC 2, ISO 27017, ISO 27018
Key management GCP KMS europe-west1 FIPS 140-2 Level 3 HSM
Object storage GCS Bucket Lock (WORM) europe-west1 Object retention policy enforced at platform level
Event journal Cloud Firestore eur3 (multi-region EU) Append-only via IAM policy + CMEK
Analytics BigQuery EU Column-level policy tags, CMEK
Identity / Secrets GCP IAM + Secret Manager Global (EU replicated) Workload Identity Federation (keyless CI/CD)

All customer data — credit events, decision records, signatures — is stored and processed exclusively in EU regions. No transfer to US or third countries occurs without explicit contractual provision (DPA + SCC).

Cryptographic architecture

Hashing

SHA-256

FIPS 180-4 standard. Used for event leaf hashes, Merkle tree construction, and state snapshot hashes. No legacy SHA-1 anywhere in the system.

Signing

RSA-PSS-SHA256 (4096-bit)

Per RFC 8017 PKCS #1 v2.2. Private key generated inside GCP KMS HSM; never exportable, never accessible by our staff. Signing performed via KMS API.

Inclusion proofs

Merkle Tree (RFC 9162)

Certificate Transparency v2 compatible. SHA-256 node hashing. Batch compaction with signed tree head. Any third party can verify an inclusion proof in O(log N) without access to our infrastructure.

Selective disclosure

SD-JWT (RFC 9901)

Evidence packs can be issued with per-audience redaction profiles. Regulators receive full detail; counterparties receive only what they need. Cryptographic binding preserved.

Transport

TLS 1.3

EV SSL certificate via Sectigo. Perfect Forward Secrecy. HSTS enforced. Mozilla Observatory grade A+ target.

Immutability

GCS Bucket Lock

Object retention policy enforced at Google infrastructure level. Once locked, no IAM principal — including Google Support — can delete or modify an object before retention period expires.

Access control and key management

Availability and performance

Metric Trial tier Professional tier Enterprise tier
Uptime SLA Best-effort 99.5% monthly 99.9% monthly
Verify endpoint p50 latency ≤ 200ms ≤ 100ms ≤ 50ms
Receipt generation p99 ≤ 2s ≤ 500ms ≤ 300ms
Support response time Best-effort Business hours (EU) 24/7 with on-call rotation
Incident communication Status page Status page + email Status page + email + dedicated Slack

Compliance and certifications

Framework Status Scope
EU AI Act (Annex III high-risk) Ready 10 QMS documents available: Technical Documentation, Risk Management, Human Oversight, Conformity Assessment
EBA GL/2020/06 (Loan Origination) Compliant Milestone-based credit assessment, full model explainability, human oversight layer
DORA (2022/2554) Compliant Immutable audit journal, cryptographic integrity verification, ICT incident audit capability
GDPR Article 35 (DPIA) Complete Full DPIA completed April 2026; available on request under NDA
ISO/IEC 42001:2023 (AI Management) In progress Gap analysis complete; external audit targeted Q3 2026
SOC 2 Type II In progress Type I audit targeted Q4 2026; Type II 2027
Basel II / SR 11-7 (Model Risk) Documentation ready Decision Proof Objects + Replay satisfy model validation requirements

Intellectual property

Incident response

Our incident response follows the AIR v1.0 protocol (Autonomous Incident Response): multi-LLM consensus validation, ProvableCORE-signed incident records, human approval gate for action triggers. This means every incident response action is itself auditable and reproducible.

Data processing

Responsible disclosure

Found a security issue? We want to hear about it. Email security@tfholding.md with details. We commit to:

Open verification

You do not need to trust this Trust Center. You can verify any ProvableCORE® receipt independently, offline, without contacting us. The verification endpoint is public and permanently available:

POST https://provablecore.eu/governance/verify

Open-source verifier CLI planned for Q3 2026 — you will be able to verify any receipt locally with no network call and no dependency on our infrastructure.

Want to review our full security package?

Enterprise customers and prospects can request our Security Architecture Document, DPIA summary, and sample audit reports under NDA.

Request security package View compliance matrix