Science

New research reveals the crucial link between long-range entanglement, error correction, and achieving the highest levels of accuracy in quantum measurements.

A new approach combines theoretical insights with Floquet-Monodromy Spectroscopy to characterize robust topological invariants in driven and dissipative quantum systems.

A novel information metric unlocks tighter bounds on how accurately we can characterize quantum measurements, advancing the field of quantum sensing and tomography.

New research explores how quantum entanglement and causal structures could unlock the secrets of gravity at the quantum level.

A new study reveals a robust form of chirality arising not from the properties of individual states, but from the way paths loop around singularities in non-Hermitian physics.

Researchers have developed trigonometric gates for continuous-variable quantum computing, enabling more efficient simulations of complex physical systems.

Researchers have discovered a way to use chaotic dynamics to precisely control the balance between entanglement and coherence in quantum systems, opening doors for advanced quantum information processing.

A new look at pre- and post-selected quantum systems reveals how carefully chosen measurements can dramatically reshape the behavior of interacting particles.

New research links a fundamental increase in entropic uncertainty to the unique properties of non-Hermitian systems, offering a novel way to understand and manage their sensitivity to noise.

Researchers have developed a Hidden Quantum Markov Model to explore the intricate relationship between entanglement and topological order in a key quantum system.