New research reveals how extreme pressure can flip the spin polarization of nitrogen-vacancy centers in diamond, potentially unlocking novel applications in sensing and quantum technologies.
Research reveals that the rate at which entangled particles emit light is demonstrably affected by their entanglement phase, offering a potential pathway for novel entanglement detection methods.
New research demonstrates how fundamental constraints on local quantum measurements ensure the consistency of causality and prevent faster-than-light signalling.
A new theoretical framework proposes a unified description of quantum mechanics by extending wavefunction evolution to both spacetime and momentum-energy domains.
New research explores how the rules of thermodynamics change when electrons are confined to a two-dimensional space where the usual laws of geometry break down.
A new perspective on quantum mechanics proposes resolving long-standing paradoxes by explicitly modeling the paths of individual particles.
New research reveals how relativistic effects alter the fundamental limits on how quickly quantum states can change, impacting the precision of phase measurements.
Recent progress in solid-state quantum emitters and nanophotonics is unlocking new pathways to generate and control complex entangled states for a range of quantum technologies.
A new analysis reaffirms that observing entanglement between massive objects interacting solely through gravity would signal physics beyond classical gravity.
A new theoretical framework proposes that coherence, not just charge, can experience gauge interactions, potentially unlocking the secrets of decoherence and entanglement.