Science

A new analysis details the trade-offs between different architectural approaches to building large-scale, fault-tolerant quantum computers.

A new cryptographic approach leverages quantum nonlocality to enhance the resilience of lattice-based key exchange protocols against both classical and future quantum computer attacks.

A new protocol significantly reduces the resources needed to create high-quality entangled qubit pairs, paving the way for larger, more reliable quantum networks.

A new protocol minimizes disturbance during quantum measurements, significantly improving the accuracy and speed of error correction in nuclear qubit systems.

Researchers have formally verified the Jasmin compiler, establishing guarantees that cryptographic implementations remain secure even after compilation.

New research explores how to minimize the workload on individual connections within a network, crucial for building robust quantum computers and reliable data transmission systems.

This review examines the evolving landscape of Quantum Key Distribution and the critical steps needed to build a truly global, secure quantum communication infrastructure.

A new compilation framework addresses the challenges of mid-circuit measurements, enhancing the fidelity of quantum algorithms on near-term hardware.

A new approach to time synchronization leverages the principles of quantum mechanics to deliver unparalleled security and precision.

As code generation tools powered by artificial intelligence become increasingly prevalent, a critical question emerges: does this code meet essential standards for reliability, security, and long-term viability?