INFRA
Inventorying cryptographic assets, defining a migration path, and shipping replaceable crypto boundaries in production code.
INFRASTRUCTURE & CRYPTOGRAPHY
KyberLib turns the post-quantum banking migration from policy paper into inspectable Rust — FIPS 203 ML-KEM key encapsulation, hybrid classical-plus-quantum handshakes, no_std compilation for HSMs, crypto-agile abstraction boundaries, and the DORA Article 5 governance evidence boards now need.
APPLIED AI
An index framework for measuring quantum-safe banking readiness in 2026: cryptographic bill of materials, hybrid TLS deployment, NIST FIPS 203 / 204 / 205 migration progress, crypto-agility primitives, and harvest-now-decrypt-later exposure across long-lived confidential data. The Board-Level Quantum Scorecard defines four exact percentages — inventory completeness, HNDL exposure, NIST migration progress, crypto-agility readiness — that turn project statuses into supervisory-ready evidence.
APPLIED AI
Harvest-now-decrypt-later turns today's TLS-protected payment messages into tomorrow's decrypted exposure. ML-KEM and ML-DSA are an order of magnitude larger than the RSA and ECC keys legacy rails were sized for — retrofit triggers fragmentation, latency, and HSM exhaustion. The 2026 architectural decision is whether to patch or replace before the regulatory clock runs out.
APPLIED AI
Quantum cryptography in 2026 has split into two practical tracks. Post-quantum cryptography is now an implementation programme, because NIST says three post-quantum standards are ready for use and…
APPLIED AI
Cloud architecture in 2026 has crystallised around six pillars: AI-native infrastructure, intelligent multi-cloud, serverless-first design with WebAssembly at the edge, edge computing, automated…
APPLIED AI
Quantum risk has moved from research curiosity to active regulatory mandate. With the G7 roadmap published in January 2026, the EU, UK, and Australian timelines clarified, and the BIS Project Leap…
APPLIED AI
A new paper suggests Shor's algorithm could run on as few as 10,000 qubits. The threshold for cryptographically relevant quantum computing is dropping faster than most had assumed.
