Science

Researchers demonstrate a novel approach to protecting quantum information by encoding logical qubits within carefully controlled ensembles of three-level quantum systems.

A new neural network decoder promises to overcome a key hurdle in building practical quantum computers by enabling fast and accurate error correction.

As quantum computing scales, efficiently scheduling circuits across multiple processors becomes critical for maximizing throughput and minimizing execution time.

Researchers demonstrate improved performance in quantum key distribution by applying principles of advanced wireless communication to enhance secure data transmission.

New research tightens the limits on how efficiently quantum information can be protected with locally recoverable codes.

A new approach leverages the principles of quantum weak measurement to dramatically improve the resilience of information processing in noisy quantum systems.

Researchers have demonstrated a scalable quantum cryptographic conferencing system capable of secure communication over significant distances, paving the way for more robust quantum networks.

Researchers have demonstrated a novel technique to detect and characterize defects in silicon carbide, unlocking potential for electrically-controlled quantum technologies.

A new stability analysis demonstrates the potential of advanced numerical techniques to accurately solve challenging problems involving complex shapes and rapidly changing data.

New research provides a rigorous analysis of an explicit numerical method for accurately simulating the long-term behavior of materials undergoing phase separation.