Science

Researchers have developed a completely solvable Path Integral Monte Carlo model for interacting harmonic fermions, providing unprecedented insights into the notoriously difficult fermion sign problem.

A new review explores the theoretical landscape of multiquark states, examining the forces that could bind these unusual configurations of quarks.

A new approach combining aerial drones and reconfigurable intelligent surfaces dramatically improves the reliability of secure millimeter wave communications.

Researchers have mapped the behavior of the integer quantum Hall transition onto disordered networks, revealing fundamental connections to gravity and confirming predictions about critical exponents.

Researchers have created a realistic test suite to assess how well large language models generate code that is both functional and free of security vulnerabilities.

A novel framework optimizes the compression of large language models by strategically reordering data before quantization, dramatically improving accuracy and reducing computational costs.

A new attack demonstrates how manipulating the fuzzy matching used to speed up large language model responses can allow attackers to control agent behavior.

This review details a novel architecture for the Number Theoretic Transform designed to withstand both control flow and timing-based hardware Trojan attacks.

Researchers are harnessing the power of established classical BCH codes to construct optimized, locally recoverable quantum codes for more resilient quantum computing.

This review introduces a novel approach to stochastic linear quadratic control, offering a robust method for optimizing systems under uncertainty.