Science

New research reveals how complex interactions within many-body atomic systems can give rise to chaotic behavior, even when seemingly regular patterns emerge.

Researchers have developed a new technique to compress the memory footprint of large language models without sacrificing performance.

A new photodiode-based technique dramatically simplifies laser phase stabilization, paving the way for practical and scalable quantum communication networks.

Researchers have developed a rigorous quantum information-theoretic approach to understanding and securing random number generators based on the inherently unpredictable nature of spontaneous emission.

Researchers have demonstrated a novel method for selectively erasing quantum information, offering new possibilities for secure communication and robust quantum systems.

Researchers are leveraging lattice field theory and Monte Carlo methods to provide a more accurate and scalable approach to modeling complex superconducting circuits.

New research demonstrates the potential for quantum systems to outperform classical methods in scenarios where multiple parties communicate with a single receiver.

Researchers have demonstrated significantly improved error protection in solid-state quantum gates using a new pulse engineering technique, bringing scalable quantum networking closer to reality.

Researchers have developed a novel quantum protocol that leverages zero-knowledge proofs to establish a secure and efficient method for verifying digital messages in emerging quantum networks.

New observability tools are critical for understanding and optimizing the complex workflows driving the next generation of quantum-centric supercomputing applications.