Science

New research reveals a deep connection between the behavior of quantum systems and the familiar dynamics of rotating rigid bodies.

Researchers have identified a previously unknown universality class governing the behavior of dissipative quantum systems where dipole moments are conserved, impacting our understanding of charge transport.

New research challenges established assumptions about the transition from quantum to classical behavior, pinpointing a surprising scaling relationship for the onset of decoherence.

Researchers propose using cavity QED to simulate and explore the complex interplay of competing orders in topological superconductors, paving the way for novel quantum materials and computation.

New research investigates a simplified quantum system-the sparsified bosonic SYK model-and its potential to demonstrate a clear advantage over classical computation.

A new theoretical framework uses fractional calculus to capture long-range correlations in open quantum systems, offering a more nuanced understanding of decoherence.

Researchers are leveraging the principles of quantum mechanics and reconfigurable intelligent surfaces to dramatically improve the speed and efficiency of wireless data retrieval.

A new theoretical framework proposes a deep connection between quantum entanglement and the fundamental building blocks of the universe, potentially bridging the gap between quantum mechanics and particle physics.

New research challenges assumptions about subsystem independence in experiments probing quantum gravity through entanglement, revealing potential pitfalls in current detection strategies.

Researchers have developed a novel method for identifying entanglement in quantum systems that goes beyond traditional Gaussian-based techniques.