Science

New research demonstrates how leveraging decoder confidence scores can significantly improve error mitigation in quantum circuits, paving the way for more reliable quantum computation.

A new analysis reveals the quantum resources needed to crack reduced-round versions of the Keccak hash function, suggesting current cryptographic standards remain robust against near-term quantum attacks.

Researchers demonstrate a new approach to secure communication by encoding information in four-dimensional quantum states and leveraging a powerful search algorithm.

Researchers have developed a streamlined protocol for universal blind quantum computation, enhancing security and reducing the demands on quantum servers.

A new approach to fault-tolerant quantum computing leverages bosonic codes and continuous-variable systems to overcome the limitations of traditional qubit-based architectures.

A new review assesses the practical hurdles in running Shor’s algorithm on today’s quantum hardware and what it means for the future of cryptography.

A new framework decomposes quantum readout to reveal the importance of coherent effects often overlooked in traditional analysis.

Researchers have developed a novel quantization method that dramatically expands the capacity of visual codebooks, paving the way for more detailed image compression and generation.

A new framework offers a practical way to estimate privacy leakage in quantum machine learning models without needing to know their inner workings.

Researchers have developed a new method to map the hidden flaws of quantum computers by analyzing the structure of quantum circuits.