🔒 PQC Readiness Scanner

Compute on encrypted data without ever decrypting it. Already deployed by major tech companies:

• Private Cloud Computing – Run database queries and analytics on encrypted data. Microsoft SEAL, IBM HElib in production.
• Encrypted Machine Learning – Google's Private Join and Compute enables ML on encrypted datasets for privacy-preserving analytics.
• Hardware Acceleration – FPGAs and custom ASICs achieving 1000x performance improvements, making FHE practical for real-time use.
• OpenFHE Standard – Open-source FHE library with contributions from DARPA, Intel, and academic institutions worldwide.
• ⚡ PQCrypta Implementation – Post-ZK Homomorphic algorithm with ML-enhanced neural compression at pqcrypta.com/encryption and compression testing

Source: Microsoft SEAL (production), Google Private Join and Compute, IBM HElib, OpenFHE, DARPA DPRIVE program, PQCrypta

Prove knowledge without revealing information. Critical for privacy and blockchain:

• zk-STARKs – Quantum-resistant by default, no trusted setup required. Deployed in StarkNet and scaling Ethereum.
• Lattice-Based zk-SNARKs – Zcash Orchard upgrade uses quantum-resistant assumptions for shielded transactions.
• Private Authentication – Prove authorization without revealing identity. Microsoft Entra uses ZK proofs for passwordless auth.
• Verifiable Computation – Filecoin uses zk-SNARKs to verify storage proofs without revealing data contents.
• ⚡ PQCrypta Implementation – Max Secure PQC-ZK and FN-DSA ZK Stack algorithms available at pqcrypta.com/encryption

Source: StarkWare (mainnet), Zcash Orchard (production), Filecoin, Microsoft Entra, Polygon zkEVM, PQCrypta

Next-generation processors making PQC as fast as classical cryptography:

• ARM Helium Extensions – ARMv9 CPUs with vectorized lattice operations. 5-10x ML-KEM speedup in mobile devices shipping now.
• Intel/AMD AVX-512 – Number Theoretic Transform (NTT) optimizations in latest server CPUs enable fast PQC at scale.
• RISC-V Crypto Extensions – Open-source ISA adding native PQC instructions for embedded and IoT applications.
• Dedicated PQC ASICs – Custom silicon achieving 100x better performance-per-watt than software implementations.
• ⚡ PQCrypta Implementation – WebAssembly acceleration for cryptographic operations with Web Workers for parallel processing at pqcrypta.com/encryption

Source: ARM Helium (Cortex-M85), Intel Sapphire Rapids, RISC-V Crypto TG, PQShield, PQCrypta

Internet protocols transitioning to quantum-resistant security:

• TLS 1.3 Hybrid Mode – Cloudflare and Google serve millions of connections daily using ML-KEM + X25519 hybrid key exchange.
• Post-Quantum VPNs – OpenVPN and WireGuard adding ML-KEM support. IKEv2 PQC extensions in production VPN deployments.
• SSH with PQC – OpenSSH 9.x supports hybrid post-quantum key exchange. GitHub and cloud providers enabling PQC SSH.
• DNSSEC Evolution – Compact PQC signatures being tested to secure DNS infrastructure against quantum threats.
• ⚡ PQCrypta Implementation – HTTP/3 WebTransport with bidirectional QUIC stream encryption supporting 28 PQC algorithms and ML compression at pqcrypta.com/streaming

Source: Cloudflare (production), Google Chrome (deployed), OpenSSH 9.x, IETF TLS/IPsec WGs, PQCrypta

Cryptocurrency networks preparing for quantum threats to trillions in digital assets:

• Ethereum Quantum Roadmap – Account abstraction and signature aggregation enabling smooth PQC migration without hard forks.
• Bitcoin Taproot Evolution – Soft fork proposals for quantum-resistant addresses and signature schemes maintaining backward compatibility.
• Post-Quantum Smart Contracts – New cryptographic primitives for zero-knowledge, multisig, and threshold signatures.
• Layer 2 PQC Adoption – Rollups and state channels implementing quantum-resistant cryptography ahead of base layers.
• ⚡ PQCrypta Implementation – Quantum-Resistant Consensus algorithm with blockchain PQ integration at pqcrypta.com/encryption

Source: Ethereum Research, Bitcoin Core development, Web3 Foundation, Algorand Foundation

Understanding when quantum computers will actually threaten current cryptography:

• Logical Qubit Requirements – Breaking RSA-2048 requires ~20 million noisy qubits or ~4000 error-corrected logical qubits.
• Current State: ~1000 Qubits – IBM Condor (1121 qubits), Google Willow (105 qubits). Error rates still too high for cryptography attacks.
• Early 2030s Timeline – IBM and Cisco announced quantum network deployment by early 2030s (5 years sooner than expected). NIST estimates 2030-2035, NSA warns 2030s-2040s.
• Harvest Now, Decrypt Later – Adversaries are collecting encrypted data today for future quantum decryption. Migration must happen now.

Source: IBM/Cisco announcements, NSA CNSA 2.0, NIST PQC mandate (2030-2035), academic cryptanalysis research