Science

Researchers have experimentally observed a critical instability point in a quantum system, revealing a new pathway for manipulating quantum states with unprecedented control.

New research establishes fundamental quantum lower bounds for determining properties of data, revealing the inherent computational cost of certain tasks.

Researchers have developed a practical method to measure quantum entanglement, coherence, and mixedness in two-spin-1/2 systems using readily available NMR spectroscopy techniques.

Researchers are leveraging the power of unsupervised learning to identify phase transitions and collective behaviors in complex quantum systems, directly from experimental data.

A proposed satellite mission aims to push the boundaries of quantum mechanics by creating a drag-free environment for experiments with macroscopic objects.

New research reveals that quantum resources don’t simply degrade, but rather shift from coherence into classical noise, impacting the efficacy of quantum technologies.

A novel approach reframes quantum measurement not as a time-asymmetric process, but as a bidirectional exchange of information, challenging our fundamental understanding of time’s arrow.

New research reveals that a fundamental relationship linking entanglement, predictability, and measurement visibility remains remarkably stable even in noisy quantum systems.

New research reveals how higher-order quantum correlations can unlock a detailed understanding of complex many-body dynamics.

A new study systematically evaluates Bell inequality-based protocols to bolster the security and reliability of quantum random number generators.