Researchers have developed a novel framework leveraging the unique properties of qudits to create and stabilize discrete time crystals, offering a new avenue for exploring non-equilibrium quantum systems.
A new cryptosystem leverages the complexities of vector computations to provide robust and efficient encryption.
Researchers have developed a simulation framework to model the complex interactions within quantum networks comprised of different qubit technologies.
Researchers have developed QReach, a novel tool for analyzing the evolution of quantum states within quantum Markov chains, opening doors to verification of larger quantum systems.
A new approach leverages quantum-enhanced deep reinforcement learning to stabilize increasingly complex power grids reliant on inverter-based resources.
New research reveals that surprisingly subtle classical attacks, powered by adversarial machine learning, can compromise the security guarantees of quantum key distribution systems.
A new technique leveraging teleportation and movable logical qubits promises to streamline quantum circuit compilation and reduce computational overhead.
Researchers have developed a scalable method to reduce the overhead of fault-tolerant quantum computation by minimizing the costly operations required for switching between error-correcting codes.
A new approach to hybrid quantum-resistant cryptography offers improved scalability and resilience against side-channel attacks for secure key exchange.
Researchers have successfully applied the Pound-Drever-Hall technique to dramatically improve the stability and sensitivity of superconducting qubit measurements.