Blog / Quantum Cryptography
Quantum Cryptography
165 articles in this category.
QKD Side-Channel Attack: Critical VOA Luminescence Risk
A new vulnerability in chip-based QKD systems leaks key material via VOA luminescence at 1107 nm. Understand the risk and audit your quantum hardware now.
Quantum LDPC Codes: The Architecture Threat CISOs Must Track
New qLDPC routing research cuts hardware overhead by O(sqrt(n)), accelerating fault-tolerant quantum timelines. What does this mean for your encryption strategy
Post-Quantum Cryptography Risk: Wire Codes Explained
Wire codes convert any quantum stabilizer code into weight-3 local interactions. Learn what this means for your PQC migration timeline and cryptographic risk po
Post-Quantum Migration for Healthcare IoT: Critical Framework
Healthcare IoT devices face quantum threats across all four architecture layers. Learn how a phased crypto-agility framework protects patient data. Start auditi
Post-Quantum Timeline Risk: CV Fault Tolerance Advances
New GKP-Steane concatenated code cuts Gaussian error variance 50%. What this means for your PQC migration window. Read the analysis.
QKD Field Performance: Clavis XGR Holds 97% Visibility
ID Quantique's Clavis XGR maintained QBER below 1% across Brazil's Rio Quantum Network. What this means for your quantum-safe deployment strategy.
Quantum Computational Sensing: Critical Security Implications
QCS achieves 15-point accuracy gains over classical sensing. What this means for your cryptographic attack surface and PQC migration path. Read now.
Quantum Error Correction: STGNN Decoder Beats MWPM
A new AI decoder identifies 90%+ of lost qubits using spatiotemporal graph neural networks. What this means for fault-tolerant quantum timelines and your encryp
Higher-Dimensional QKD: Why Qudits Beat Qubits for Key Security
New research shows higher-dimensional quantum key distribution resists eavesdropping better as dimension grows. What CISOs need to know now.
Quantum Circuit Optimization: AlphaCNOT Cuts CNOT Gates 32%
AlphaCNOT's model-based RL cuts CNOT gate counts 32% on NISQ devices, compressing timelines to crack RSA-2048. Audit your PQC migration plan now.
Synthetic Randomized Benchmarking: 100x Faster Quantum Validation
New synthetic RB protocols cut quantum noise characterization sampling by 100x. What this means for your post-quantum migration timeline.
Game-Theoretic Quantum Error Correction: Critical Breakthrough
Nash equilibria now generate quantum error-correcting codes in under an hour at 100 qubits. What does this mean for your PQC migration timeline?