Science

A new analysis reveals how the spectral properties of noise-canceling operators connect to the fundamental nature of quantum errors.

Researchers have developed a novel error correction scheme leveraging concatenated codes and Gaussian states to protect fragile quantum information from noise.

New research identifies an optimized hypercube code demonstrating significantly improved error rates and reduced qubit overhead, paving the way for more practical quantum computation.

This review explores the principles and practicalities of continuous-variable quantum key distribution, a powerful alternative to traditional discrete-variable approaches for secure communication.

New circuit-level countermeasures and proactive detection techniques bolster cryptographic systems against power and electromagnetic side-channel attacks, with a silicon-verified implementation of the Saber algorithm demonstrating significant energy gains.

New research reveals a surprising connection between the seemingly disparate fields of quantum scrambling and quantum secret sharing, opening doors for novel cryptographic protocols.

A new analysis details how optimized multiqubit Rydberg gates can bolster the performance of quantum error correction schemes, paving the way for more robust quantum computers.

As artificial intelligence systems become increasingly regulated, ensuring the long-term security and integrity of their audit trails is paramount.

A new approach to quantum circuit design bypasses traditional calibration routines, enabling high-fidelity execution even with noisy, real-world quantum gates.

Researchers have developed a unified framework for converting between different representations of surface code quantum computations, paving the way for more efficient and verifiable designs.