// Post-Quantum Readiness
PQC readiness: in progress

PQC Ready by Design

Our platform is preparing for the transition to post-quantum cryptography through a risk-based, standards-driven roadmap. We follow NIST PQC standards and EU coordinated transition guidance, using a phased, hybrid migration — never a disruptive big-bang replacement — and design every layer for crypto-agility.

// Standards

Aligned with NIST PQC

Migration starts now. Quantum-vulnerable algorithms are being phased out on a published schedule. Hybrid deployments protect interoperability during transition.

FIPS 203
ML-KEM
Key encapsulation

Module-lattice key exchange for TLS and transport-layer session establishment.

FIPS 204
ML-DSA
Digital signatures

Primary post-quantum signature scheme for tokens, artifacts, and authentication.

FIPS 205
SLH-DSA
Stateless hash-based signatures

Conservative fallback signature family for long-lived attestations and root-of-trust.

// Roadmap

PQC readiness roadmap

Phased · risk-based · hybrid-first
Discovery
High
Q1
Goal
Full cryptographic visibility
Activities
Inventory algorithms, protocols, key stores, certificates, and third-party crypto surfaces.
Deliverables
Crypto Bill of Materials (CBOM); dependency map.
Risk classification
High
Q1–Q2
Goal
Prioritize by data lifetime and exposure
Activities
Score assets by HNDL risk, data sensitivity, and replacement complexity.
Deliverables
Risk register; migration priority tiers.
Architecture design
High
Q2
Goal
Crypto-agile reference architecture
Activities
Abstract crypto behind policy; define algorithm negotiation and key lifecycle.
Deliverables
Reference architecture; crypto policy v1.
Pilot hybrid mode
Medium
Q2–Q3
Goal
Validate hybrid classical + PQC
Activities
Enable ML-KEM hybrid TLS on non-critical paths; measure latency and interop.
Deliverables
Pilot report; performance baselines.
Production hardening
High
Q3–Q4
Goal
Roll out to critical services
Activities
Enable PQC signatures for artifacts; migrate KMS/HSM policies; certificate reissuance.
Deliverables
Hardened services; updated PKI.
Governance & procurement
Medium
Ongoing
Goal
Embed PQC in vendor lifecycle
Activities
PQC clauses in contracts; vendor questionnaires; SBOM/CBOM requirements.
Deliverables
Procurement policy; vendor scorecard.
Continuous monitoring
Medium
Ongoing
Goal
Detect drift, deprecate weak crypto
Activities
Automated crypto scanning; quarterly review; algorithm sunset schedule.
Deliverables
Quarterly PQC review; public status updates.
// Crypto-Agility

Algorithms are configuration, not code

  • Policy-driven crypto

    Cryptography is abstracted behind a central policy and configuration layer.

  • No hardcoded algorithms

    Applications negotiate algorithms; sunset without rewrites.

  • Central certificate lifecycle

    Issuance, rotation, revocation, and reissuance are automated.

  • KMS/HSM review

    Key stores and third-party crypto dependencies are reviewed for PQC readiness.

// Security Controls

Operating controls in place

  • Cryptographic inventory (CBOM)
  • Risk-based prioritization by data lifetime
  • Hybrid classical + PQC deployment path
  • Interoperability & performance testing
  • Certificate lifecycle automation
  • Vendor and third-party readiness review
  • Quarterly crypto review board
// Governance

What this means in practice

  • Public status page for PQC readiness
  • Internal crypto policy with formal review process
  • Procurement requirements for vendors and subprocessors
  • Published migration milestones and sunset dates
  • Ongoing monitoring, disclosure, and version updates
// FAQ

Common questions

Why does PQC matter now?+

Sensitive financial data has a lifetime measured in decades. Adversaries can capture ciphertext today and decrypt it once a cryptographically-relevant quantum computer exists — the harvest-now, decrypt-later model. Starting the migration now protects data whose confidentiality must outlive current algorithms.

What is crypto-agility?+

Crypto-agility is the ability to change cryptographic algorithms, parameters, and providers without rewriting application code. We abstract crypto behind policy and configuration, centralize the certificate lifecycle, and treat algorithms as swappable components governed by a formal review process.

How do you migrate without downtime?+

We use hybrid modes that combine a classical algorithm with a NIST PQC algorithm during transport and signing. Services stay interoperable with legacy clients while gaining post-quantum protection. Rollouts are phased by risk tier with measured performance baselines and rollback paths.