Science

A new study proposes that kilometer-scale interferometry could unlock the detection of Earth-mass moons orbiting gas giants within their habitable zones.

A new white paper details the critical observations needed to unravel the mysteries of these stellar explosions and maximize our scientific return over the coming decades.

New research reveals that the spectral characteristics of a quantum system’s surroundings dramatically influence how photons propagate, creating regimes ranging from rapid dissipation to persistent memory effects.

A new platform integrates superconducting qubits with acoustic waves to create ‘giant atoms’ with enhanced quantum control capabilities.

Researchers have developed a novel tool, the ‘Triangle Criterion’, to identify and characterize a more general form of quantum resource known as ‘magic’, extending beyond traditional entanglement measures.

Researchers have demonstrated a new method for sustaining entanglement between quantum bits using nanoscale structures that channel light, paving the way for more robust quantum networks.

A new analysis probes whether the evolution of quantum systems can be fully explained by hidden variables, revealing fundamental constraints on local realism.

Dynamically controlled quantum sensors offer a pathway to surpass the precision of traditional methods and unlock new capabilities in metrology.

New analysis clarifies that observed ‘speeds’ in the evanescent regime reveal how quickly a quantum wavefunction decays, rather than indicating particle motion.

Researchers demonstrate a new approach to harnessing strong, decoherence-free interactions between many-body systems using giant atoms coupled to a parametric waveguide.