New research establishes a surprising connection between quantum decoding algorithms and a challenging problem in coding theory, potentially unlocking new approaches to both fields.
A new framework optimizes qubit routing and scheduling in distributed quantum architectures to minimize communication overhead and resource consumption.
Researchers have demonstrated a controllable interaction between a Kerr-cat qubit and a transmon qubit, paving the way for integrating noise-biased bosonic qubits into advanced quantum error correction schemes.
Researchers are connecting classical numerical integration techniques to the design of quantum codes, paving the way for more robust and efficient quantum computation.
A new protocol enhances the reliability of delegated quantum computations by improving tolerance to errors and bolstering security.
A new software prototype is designed to optimize the CASCADE error correction protocol, a critical component for secure quantum communication networks.
A new framework leverages the principles of Zero Trust and category theory to protect artificial intelligence models against emerging quantum threats, even on limited-resource devices.
A new framework combines the strengths of quantum key distribution and post-quantum cryptography to secure communications in increasingly complex network environments.
A new mathematical framework promises to unlock the full potential of 5G by providing a precise way to understand and optimize network latency.
Researchers have developed the first scalable computational method for determining optimal strategies in complex multiplayer games, offering insights into how stable behaviors emerge.