GAO audit reveals 24 major federal agencies lack adequate preparation for quantum threats to cryptography, with critical skills gaps delaying post-quantum cryptography implementation and federal system resilience.

GAO audit reveals 24 major federal agencies lack adequate preparation for quantum threats to cryptography, with critical skills gaps delaying post-quantum cryptography implementation and federal system resilience.
Saudi Arabia's central bank (SAMA) requires financial institutions to assess quantum computing threats to encryption and develop post-quantum cryptography readiness strategies.
Zumo and Quantum Chain launched a partnership to provide quantum-resistant financial infrastructure for UK institutions, combining quantum-secure blockchain technology with digital asset management to address future quantum computing threats.
Researchers construct succinct arguments for QMA directly from ideal hash functions, solving a major open problem and showing quantum cryptographic primitives don't require special structured assumptions.
Novel restricted quantum computation model enables secure public quantum computers by limiting cryptanalytic power while preserving scientific utility through randomized inputs and single-bit outputs.
Establishes matching finite-blocklength bounds and derives capacity min{ϵ,1−ϵ} for quantum-state oblivious transfer over quantum erasure channels with rigorous information-theoretic security proofs in both honest and adversarial settings.
Quantum time-lock puzzles now possible: using BB84 states, we achieve polylogarithmic generation time and T-round solving with security against polynomial-width quantum adversaries—resolving a 15-year-old open problem.
This work proves parallel repetition reduces soundness error at tight rates for all interactive arguments under homomorphic encryption, even against quantum provers. It enables constant-round succinct quantum argument constructions.
Quantum protocol achieves optimal-rate certified randomness without requiring verifier randomness, advancing near-term quantum applications like randomness beacons with unconditional security proofs in the quantum random oracle model.
Proves parallel Kac's walk achieves rapid mixing on Stiefel manifolds in O((k+log d)log(d/ε)) steps, extending results from single quantum states to multiple orthonormal states with applications to quantum cryptography and pseudorandom unitaries.
Framework for zero-knowledge certification of shared entangled states in quantum networks achieving information-theoretic security independent of computational power, extending cryptographic primitives to multiparty distributed quantum settings.
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.