Quantum Verify

Quantum-resistant identity and compliance

Post-quantum cryptography for identity attestation, zero-knowledge compliance proofs, and blockchain-anchored audit trails. Proactive security for financial identity infrastructure.


The Case for Post-Quantum Security

Why quantum-resistant identity

Current cryptographic standards -- RSA-2048, ECDSA -- underpin every digital identity verification, every signed document, every encrypted data store. These standards face an eventual quantum computing threat that is not theoretical: NIST finalized post-quantum cryptography standards (CRYSTALS-Kyber, CRYSTALS-Dilithium) in 2024 specifically because the threat timeline is within planning horizons for critical infrastructure.

Financial identity requires proactive migration, not reactive response. The "harvest now, decrypt later" threat means that identity data encrypted today with classical algorithms could be decrypted retroactively when quantum capability matures. For financial services, where identity attestations must remain valid for years, this is not an abstract concern.

The Aaim approach: Quantum Verify implements post-quantum signature algorithms for identity attestation, ensuring that verification records created today remain cryptographically secure against future quantum capabilities.

NIST Post-Quantum Standards

Key Encapsulation

CRYSTALS-Kyber (ML-KEM)

Lattice-based key exchange replacing RSA/ECDH

Digital Signatures

CRYSTALS-Dilithium (ML-DSA)

Lattice-based signatures replacing RSA/ECDSA

Standardized

FIPS 203, 204, 205 (August 2024)

Federal standards for post-quantum cryptography


Zero-Knowledge Proofs

Prove compliance without exposing data

Zero-knowledge proofs allow proving a statement is true without revealing the underlying data. This reduces data exposure during vendor assessments, examinations, and cross-institutional verification.

KYC Completion Verification

Prove that a customer has completed KYC requirements without sharing the underlying identity documents, SSN, or verification details with the requesting party.

Regulatory Compliance Proof

Demonstrate that specific regulatory controls are satisfied without exposing the control implementation details or internal compliance documentation to unauthorized parties.

Vendor Assessment Attestation

During vendor assessments and examinations, reduce data exposure by proving compliance statements are true without revealing the full scope of internal controls.


QVToken Architecture

Cryptographic identity attestation

A QVToken is a cryptographic attestation that identity verification occurred. Each token carries proof-of-verification, not personal data, and is anchored to a blockchain audit store for tamper evidence.

1

Mint

On successful identity verification, a QVToken is created containing a cryptographic attestation that verification occurred. The token contains proof-of-verification metadata, not personal data.

2

Verify

Any authorized party can verify a QVToken is valid and unrevoked by checking its cryptographic signature and status on the audit store. No personal data is exposed during verification.

3

Revoke

If an identity is compromised or verification is invalidated, the token is revoked. Revocation is recorded immutably on the audit store for full lifecycle tracking.

Data Minimization by Design

QVTokens contain only the cryptographic proof that verification occurred, the timestamp, and a reference to the verification method. Personal data (name, SSN, identity documents) is never encoded in the token. This design enables verification sharing across institutional boundaries without creating additional data exposure.


Blockchain Audit Store

Tamper-evident compliance records

Compliance events are anchored to a distributed ledger, creating an immutable audit trail that provides cryptographic proof rather than attestation-based trust.

Immutable Record

Compliance events are anchored to a distributed ledger, creating a tamper-evident record that cannot be altered after the fact.

Merkle Proof Verification

Any party can independently verify that a specific record existed at a specific time using cryptographic Merkle proofs, without trusting any single authority.

Stronger Than PDF Reports

Traditional compliance relies on attestation-based trust: a PDF report signed by an auditor. Blockchain anchoring provides cryptographic proof that the underlying data existed and was unaltered.

Examination Support

Regulatory examiners benefit from tamper-evident audit trails that reduce the need for independent reconstruction of compliance timelines during examinations.


Explore quantum-ready identity

Learn how Quantum Verify provides post-quantum security for your institution's identity verification and compliance infrastructure.