Quditto enables automated, scalable emulation of hybrid QKD-PQC networks on standard infrastructure, deploying 200-node systems in ~6 minutes with secure cryptographic material management based on standardized interfaces.

Quditto enables automated, scalable emulation of hybrid QKD-PQC networks on standard infrastructure, deploying 200-node systems in ~6 minutes with secure cryptographic material management based on standardized interfaces.
Establishes tight indistinguishability bounds for sum of permutations in classical and quantum settings using Fourier analysis, with applications to PRP-to-PRF conversion and variable-output constructions like LXoP.
New noise model reveals when high-dimensional time-bin entanglement outperforms qubits for quantum key distribution. Comprehensive analysis balances temporal resolution with information capacity for optimal secure communication.
Quantum leakage resilience of Shamir secret sharing established: exponentially secure against single-qubit leakage at threshold rate >73.3% with various entanglement models. Using Fourier analysis & MDS codes for quantum-resistant cryptography.
First provably untelegraphable quantum fire in standard model using one-shot signatures. Introduces conversable fire: cloneable quantum states transmissible via interactive classical communication despite one-way untelegraphability.
Proves exponential lower bounds on resources adversaries need to break position-based quantum cryptography through non-local quantum computation, advancing understanding of quantum security under low-degree polynomial constraints.
First proof that succinct quantum argument verification can rely solely on collapsing hash functions—matching classical cryptography's minimal assumptions and advancing post-quantum security for quantum computation.
Organizations can implement hybrid encryption pairing classical and post-quantum cryptographic algorithms for immediate quantum-resistant protection without complete infrastructure overhaul, allowing phased transition while maintaining operational continuity.
Creotech Quantum advances Superconducting Nanowire Single-Photon Detectors to TRL 5 for European space-to-ground quantum key distribution networks and deep-space optical communications.
Creotech Quantum's EU-funded eCAUSIS project completes development of discrete-variable quantum key distribution (DV-QKD) systems, transitioning from R&D to commercial production with 1,000 units/year capacity launching 2026.
Creotech Quantum's eCAUSIS project secures European Commission approval, advancing toward commercialization of certified, affordable, and scalable quantum key distribution solutions.
Counterintuitive breakthrough: poorly fabricated Josephson junctions generate cryptographic-grade random numbers at millikelvin temperatures, achieving 99.8% Shannon entropy and passing all NIST tests. Eliminates need for tight device screening.
Novel NP-aided shadow tomography breaks leading quantum cryptography constructions including Hamiltonian Phase States. Shows many architectures designed to avoid one-way functions actually imply them, constraining future quantum cryptography research.
Quantum computing poses significant threats to cryptocurrency security. This analysis examines vulnerabilities in Bitcoin, Ethereum, and Solana, and evaluates viable post-quantum cryptography migration pathways.
QuintessenceLabs unveiled TSF Sentry, automating remediation of cryptographic vulnerabilities. It connects findings to affected applications for targeted fixes and includes a Post Quantum Cryptography Readiness Assessment for transition planning.
Researchers demonstrate the first modulator-free QKD architecture using optical injection locking, achieving 4.78 kbps secure key rate with inexpensive components, solving the access-layer deployment challenge for quantum networks.
Researchers experimentally resolved third and fourth-order photon scattering from a single atom, revealing genuine energy-time entangled multiphoton states with applications in quantum secret sharing and quantum metrology.
Researchers tightened quantum security bounds for compressed permutation oracles from O(N^1/12) to Ω(N^1/2) queries, yielding concrete collision and preimage resistance thresholds for SHA-3 and Davies-Meyer hash functions.
Proves quantum soundness of total-degree line-vs-point tests, establishing consistency guarantees for entangled quantum provers. Key advance for secure quantum computing and cryptographic verification protocols.
Researchers demonstrated a secure quantum computation protocol using key decoupling on superconducting qubits, reducing verification overhead through Pauli observable checks and enabling practical quantum cloud computing.