Researchers used laser light to create synthetic magnetism in neutral atoms, allowing for unprecedented control over quantum systems. This breakthrough enables the study of phenomena such as electrons in magnetic fields and has potential applications in quantum computing and information science.
Researchers discovered a pressure-driven quantum critical regime in chromium, achieving the first direct measurement of a 'naked' quantum singularity in an elemental magnet. This breakthrough paves the way for understanding magnetic quantum criticality in more complex systems.
Researchers have devised an experimental arrangement to mimic the behavior of electrons in Dirac's theory. The atoms will show Zitterbewegung, a never-before-seen motion, which could provide insight into electron behavior beyond observational scrutiny.
Researchers have detected a hidden magnetic 'quantum order' extending over chains of nearly 100 atoms in a magnetically disordered material. This discovery may lead to the design of devices and materials for quantum information processing, including large-scale quantum computers.
Researchers found telltale signs of a link between quantum effects and thermodynamic properties in YbRh2Si2, shedding light on collective organization of microscopic particles.
Researchers at Stanford University used neutron scattering to study the magnetic properties of insulators with random impurities, discovering a novel model magnet. The introduction of nonmagnetic impurities disrupts long-range magnetic order, leading to unprecedented quantum fluctuations.
Quantum Magnetics Inc. is adapting nuclear quadrupole resonance technology for landmine detection in a portable detector for U.S. marines and a vehicle-mounted system for the U.S. Army. The technology was originally developed for explosives and narcotics detection, with successful demonstrations at airport operations.