A radical superconducting qubit design promises to extend their runtime by addressing decoherence challenges in quantum computing.

A radical superconducting qubit design promises to extend their runtime by addressing decoherence challenges in quantum computing.
Scientists achieve groundbreaking room-temperature quantum coherence for 100 nanoseconds, propelling molecular qubits closer to practical quantum computing.
Scientists pioneer mixed-valence molecules in quantum-dot automata for faster, room-temperature operation, overcoming transistor limits.
Physicists working on LIGO have surpassed the quantum limit to enhance gravitational wave detectors and revolutionize astrophysical observations.
Harnessing quantum dots to produce low-energy single photons for applications in secure communications and quantum computing.
Exploring the interface between classical and quantum physics and where it breaks down to provide answers for some long-standing mysteries.
Scientists investigate the synergy of entanglement and curved spacetime in advancing quantum radar technology for precise distance measurement.
The mysterious phenomenon that Einstein once described as “spooky action at a distance” was seen as a wavefunction between two entangled photons.
A new type of superconductor may just be what physicists have been searching for over the past 40 years.
Quantum key distribution is the only way to ensure an absolutely secured connection protected by the laws of quantum physics.