Researchers have demonstrated a surprisingly simple method for generating tunable discrete quasi-time crystals, opening new avenues for exploring complex temporal order in quantum systems.
Understanding the inherent difficulty of coordinating multiple agents is crucial for advancing robotics, game AI, and logistics.
New research connects the behavior of quantum systems under constant energy loss to the interplay between effective potential landscapes and the probability of tunneling between states.
Researchers have developed a novel protocol, dubbed Catalytic Tomography, to efficiently and accurately characterize the properties of complex quantum ground states with minimal disruption.
New research quantifies the ultimate limits of resolving closely spaced light sources, revealing that exploiting the fundamental properties of dipole emission can push optical microscopy beyond conventional resolution boundaries.
New research establishes a fundamental upper bound on how quickly fluctuations can grow in open quantum systems, offering insights into the stability of quantum information.
Researchers have developed a new framework for maintaining stable quantum oscillations even within systems subject to environmental noise and dissipation.
New research explores how the Unruh effect, experienced by accelerating observers, fundamentally alters the limits of quantum uncertainty and the preservation of quantum information.
New research reveals that the fundamental rules governing quantum behavior aren’t arbitrary, but a natural consequence of enforcing the principles of relativity.
Researchers have successfully demonstrated entanglement swapping between quantum dots, paving the way for scalable quantum networks.