Research articles, threat intelligence, and deep-dives into quantum security — from the team building the future of cybersecurity.
Nation-state adversaries systematically intercept and store encrypted communications today, betting quantum computers will give them the key. Financial records, healthcare data, and classified communications are already at risk.
FIPS 203 (ML-KEM), FIPS 204 (ML-DSA), and FIPS 205 (SLH-DSA) — the three algorithms that will protect the world's data against quantum computers. How they work and why QAISS implements all three.
Google has warned that quantum computing poses both a transformative opportunity and a looming cybersecurity risk. The company has been preparing since 2016, rolling out PQC in Chrome and across its infrastructure.
The moment a quantum computer breaks RSA-2048 may be closer than we think. Using Mosca's Theorem: if your data secrecy + migration time exceeds the quantum timeline, you're already at risk.
AI model weights, training datasets, and inference APIs have become prime targets for adversaries. Quantum-safe protection of AI infrastructure is no longer optional — it's existential.
From quantum random number generation to BB84 key distribution — how we built 4 working security circuits on OriginQ's 72-qubit WuKong processor using pyqpanda3.
The CRA and NIS2 directives are pushing European organizations toward crypto-agility. How QAISS helps enterprises meet compliance mandates while preparing for quantum threats.
OriginQ's Origin Pilot is the world's first open-source quantum operating system. QAISS is built on this platform, leveraging its cloud API to access the WuKong 72-qubit processor.
The BB84 protocol uses quantum mechanics to create provably secure key exchange. QAISS implements BB84 on real quantum hardware for unbreakable key rotation between protected systems.
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