UserOp + validator scheme review
We score whether your IAccount / IValidator can swap to an ML-DSA verifier without a balance-migrating redeploy. Hard-coded `immutable` signers are flagged Critical.
The first PQC audit for the modern Account-Abstraction stack — UserOps, validators, session keys, paymasters, recovery.
Specialised audit for ERC-4337 / ERC-7579 / EIP-7702 Account Abstraction wallets and the modular validator stack that ships on top. We score every cryptographic surface in the AA pipeline — UserOp signatures, validator-module slots, session keys, paymaster sponsorship signatures, EIP-7702 delegations + their revocation paths, and social-recovery guardian schemes — for post-quantum readiness. Deliverable: a signed AA Posture Certificate verifiable on the public QorTrace registry.
Cryptographic Migration Certificate · signed PDF, embeddable SVG, hash on the QorTrace public registry.
ERC-4337 UserOps, ERC-7579 validator modules, session keys, paymaster sigs, EIP-7702 delegations — every signature in the modern AA pipeline is ECDSA. Your existing security audit signed off on the logic and never looked at the cryptography. We do nothing else. We score the full AA stack — including the revoke-downgrade trap that bites every 7702 wallet — against NIST FIPS 204, ERC-7579, and the draft AA-PQC migration spec.
Every engagement ships against this fixed manifest. No scope-creep invoices, no surprise “phase 2” line-items. If we change the scope, we re-sign first.
We score whether your IAccount / IValidator can swap to an ML-DSA verifier without a balance-migrating redeploy. Hard-coded `immutable` signers are flagged Critical.
Every ephemeral session key signed today is harvestable. We classify your session-key issuance, lifetime, and rotation policy + write the ML-DSA migration plan.
We trace every revoke / clear / expire path. If revocation falls back to bare ECDSA, that's a Critical finding — we write the fix.
Verifying paymaster signatures are a forgery jackpot. We audit your paymaster's signature scheme + recommend the PQ migration path.
Documented slot-naming convention (`pq.validator.v1`) so wallets + UX can detect PQ-ready accounts at install time.
Guardian signatures, Shamir splits, WebAuthn passkeys — all classical today. We score your recovery scheme + map the PQ upgrade.
Deterministic, methodology-citable. SVG + PDF certificate verifiable on qortrace.com/verify/<id>. Embeddable badge for your docs.
The post-quantum migration is not a slide — it’s a specific set of standards, libraries, and key-management primitives. Below is what we touch on every engagement, why it exists, and what it protects you against.
The lattice-based key-exchange standard NIST finalised in August 2024. Replaces ECDH on every TLS 1.3 handshake, every IPsec tunnel, every messaging-app key wrap. We integrate the FIPS-203 module ML-KEM-768 by default (Level 3 security · ~256-bit classical · quantum-resistant).
The lattice-based signature standard. Replaces RSA-PSS and ECDSA on code-signing, document-signing, and TLS server authentication. We deploy ML-DSA-65 (Level 3) for transitional dual-signing alongside the classical algorithm during the migration window — never replace, always co-sign first.
The U.S. federal mandate: PQC primitives operational across National Security Systems by 2030, exclusive by 2035. Defines the exact KEM (ML-KEM-1024) and signature (ML-DSA-87) profile used at NSS-grade and the migration-pace expected from contractors. Every Cryptographic Migration Certificate we issue carries an explicit CNSA 2.0 attestation block.
The transitional posture every serious PQC rollout uses: combine a battle-tested classical primitive (X25519, the Curve25519 ECDH variant — or X448 at higher security level) with the post-quantum KEM in a single key-derivation step. If either side breaks, the other still holds. Browsers shipped this in 2024 (Chrome “X25519MLKEM768” group); we operationalise it for your endpoints.
The Open Quantum Safe project’s OpenSSL 3.x provider that exposes ML-KEM, ML-DSA, SLH-DSA, and the hybrid groups as first-class crypto algorithms inside any application that already speaks OpenSSL. We do not maintain a private fork — we ship upstream patches and point your CI at a reproducible build with a pinned commit.
The C library underneath everything else — implementations of every PQC candidate that ever entered NIST’s evaluation, including the four standardised winners (ML-KEM, ML-DSA, SLH-DSA, FN-DSA). Audited, side-channel-aware, and the de-facto reference for open-source PQC. We pin the version, we record the commit hash, and the hash makes it onto your migration certificate.
The version line that gives us providers (modular crypto), proper FIPS module isolation, and the runtime negotiation hooks needed to ship hybrid TLS without a fork. We standardise every engagement on OpenSSL 3.2+ and surface the version on the certificate so auditors don't need to grep your container builds.
Where your most sensitive keys actually live. Every cloud KMS now exposes ML-KEM and ML-DSA key types (AWS “ML_KEM_768”, GCP “PQ_SIGN_ML_DSA_65”, Azure “ML-KEM”), and on-premise HSMs from Thales and Entrust ship FIPS-203/204 firmware lines. We map your existing key inventory, design the wrap-and-rotate path, and ship the runbook your SRE team executes — without you ever exposing key material outside the boundary.
One business day to a senior engineer. Fixed-fee scoping memo within five business days. NDAs available on request.
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