Science

Researchers have developed a comprehensive system for translating quantum algorithms into physical circuits suitable for near-term, error-correcting quantum computers.

Researchers have demonstrated a practical, stable implementation of Twin-Field Quantum Key Distribution using a novel Sagnac interferometer design.

Researchers have developed a system that automatically detects and patches memory corruption vulnerabilities in compiled code, offering a promising path to more secure software.

A new framework leverages artificial intelligence to dynamically optimize resource allocation in sharded blockchains, promising increased throughput and reduced latency.

Researchers have developed novel techniques to significantly reduce the computational cost of performing Galois Field arithmetic on quantum computers.

New research explores the challenges of efficiently routing quantum information through networks where traditional pathfinding methods fall short.

A new approach to syndrome extraction reduces the overhead of protecting quantum information in toric codes.

New research demonstrates that connecting multiple smaller, high-fidelity quantum processors can achieve superior performance to a single, larger, and inherently noisier system.

Researchers detail a novel cryptographic scheme leveraging advanced mathematical structures to secure communications against future quantum computer attacks.

A new cryptographic primitive offers a durable, adaptable foundation for secure identities across multiple cryptographic curves and algorithms, preparing for the era of quantum computing.