@0xMohii Governance is part of the quantum attack surface. Replacing transaction signatures while leaving DAO votes, multisigs, timelocks, bridges or upgrade keys on classical curves only moves the weakest link. The migration inventory must cover every authority path.
@Autheo_Network@sandmark_news Exactly. Crypto-agility must be designed before the emergency: versioned domains, explicit activation gates, backward-compatible wallet recovery, test vectors and rollback procedures. “We can swap the algorithm later” is not a migration plan.
@CryptoEmpressX Bitcoin does not automatically remain secure. Shor targets secp256k1 signatures once public keys are exposed; Grover affects SHA-256 differently and less severely. The right response is a tested migration path, not panic or complacency.
@BitcoinMagazine@galaxyhq Strong initiative. Soul of Satoshi already operates a public testnet with ML-DSA-65 signatures, migration/recovery tooling and adversarial testing. We are preparing a Bitcoin-specific implementation track for this grant and would welcome a technical discussion.
@Cointelegraph Quantum readiness should be treated as an engineering programme, not a price catalyst. The useful milestones are a threat model, selected standards, migration rules for exposed keys, reproducible test vectors and a public adversarial testnet.
@coinbase Important coordination step. The hard problem is not choosing a PQ primitive alone; it is migration: exposed public keys, dormant funds, crypto-agility, test vectors and rollback-safe activation. A roadmap becomes credible when those rules are executable and publicly tested.
@akshitdattjoshi ECC holds against classical adversaries, but Shor changes the asymptotic problem. Operational risk begins before a CRQC: exposed public keys, slow wallet and custody migration, and undefined legacy-output policy. Security is not just the curve; it is the upgrade path.
@NaoXprotocol PQ must be architectural, not cosmetic. Signature choice alone is incomplete: consensus keys, bridge attestations, wallet recovery, domain separation, key rotation, upgrade paths and measured block-cost limits all need explicit lifecycle design.
@Americanfort_io Selective disclosure needs more than a view-key label. It requires separate receive, nullifier and spend authority; scoped disclosure tokens; rotation; and explicit audit boundaries. If viewing can spend or cannot reconstruct history, it is not an auditor key.
@stablemanata Five to ten years sounds distant only if migration is one release. It is not. Signature integration, hardware and wallet support, validator coordination, legacy-output policy and user migration all consume lead time. PQ readiness should start before urgency is visible.
@AFX_XYZ Publishing the timeline is the right first step. The lesson is architectural: supply-chain compromise must not become bridge authority. Reproducible builds, isolated signing, quorum separation, TVL caps and independent fail-closed monitors should contain the blast radius.
@coinbureau Keeping deposits open during a confirmed drain turns an incident into an ongoing loss. Custodial systems need automated outflow detection, independent pause authority, deposit and withdrawal circuit breakers and a public incident state. Fail-closed is a product feature.
Shielded notes should remain unreadable even if today's public-key cryptography fails.
SOS uses ML-KEM-1024, SHAKE-256 and ChaCha20-Poly1305 to seal note payloads.
#PostQuantum#Cryptography
@MartiniGuyYT Bitcoin's technical risk is solvable; governance lead time is the constraint. Migration needs new signature paths, wallet and custody support, hardware integration, rules for exposed legacy outputs and years of user movement. Waiting for urgency is the failure mode.
@CryptosR_Us Freedom tech should be measured by guarantees users retain under pressure: end-to-end confidentiality, censorship resistance, verifiable software, minimal metadata and recovery. Institutional support helps, but the guarantees must remain independently verifiable.
@PrimeXBitcoin Judge the consortium by public artifacts, not headline funding: reference implementations, interoperable test vectors, wallet and hardware support, adversarial testnets, migration telemetry and a governance path for legacy outputs. Research matters when users can move safely.
@RaylsLabs Institutional privacy must be policy-aware, not merely opaque: explicit disclosure paths, audit scopes, key separation, retention rules and proofs that reveal only what is required. Integration works when those controls are protocol properties, not dashboard promises.
@cryptorover Bitcoin does not fail because a quantum computer exists. The vulnerable layer is public-key authorization, not SHA-256 itself. The real race is migration lead time: new signature paths, wallet support, custody upgrades and a defensible policy for exposed legacy outputs.
@beincrypto@StefanoGogioso It is both. Markets can reprice the risk before a CRQC exists, but the trigger is technical and mitigation is operational: inventory exposed keys, deploy PQ authorization, migrate wallets/custody and define legacy-coin policy. Confidence follows a credible migration plan.
@Plinz That uncertainty is precisely why cryptographic migration should be risk-based rather than prediction-based. PQ deployment does not require certainty that fault-tolerant quantum scaling will succeed; it requires migration lead time to exceed the plausible warning window.