Science

As quantum software grows in complexity, researchers have developed an automated pipeline to identify and diagnose the root causes of unreliable, or ‘flaky’, tests.

Researchers have established a surprising connection between quantum error-correcting codes and a class of classically-inspired codes used in secure multi-party computation.

Current methods for evaluating automated vulnerability repair tools are significantly overestimating their success rates, masking critical flaws in patched code.

Researchers have discovered a way to sensitively detect and characterize a persistent spin helix in materials by leveraging the quantum metric, a geometric property of quantum systems.

This review explores techniques for building robust analog computing systems by leveraging error-correcting codes that maintain signal integrity with remarkably low overhead.

Researchers have developed a novel method for dramatically reducing the size of large language models without sacrificing accuracy, paving the way for faster and more accessible AI.

A new hardware-software co-design eliminates the need for a runtime software trusted computing base, offering a fundamentally more secure approach to embedded system protection.

A comprehensive survey reveals the evolving security landscape of transaction processing and proposes a new framework to address the demands of modern, complex applications.

Researchers have developed a novel attestation relay system that significantly reduces bandwidth overhead, enabling more efficient and scalable post-quantum cryptographic networks.

Researchers are leveraging the power of artificial intelligence to automatically identify software components that handle sensitive cryptographic operations.