Articles tagged with Quantum Matter
Researchers created a record-breaking gas mixture of Lithium 6 and Potassium 40 using an ultra-freeze trap, increasing the number of atoms under study to a few billion. This breakthrough will aid in simulating subatomic-scale phenomena and understanding quantum mechanical effects in neutron stars.
Researchers at the University of Vienna and Austrian Academy of Sciences have successfully simulated a frustrated quantum system using entangled photons. The experiment offers enormous potential for future quantum simulators to study complex quantum phenomena.
Physicists at Rice University report a simple scaling behavior in electronic excitations of a related material, providing direct evidence of large-scale electronic consequences of quantum critical effects. The study reveals that variables from classical physics cannot explain all observed macroscopic properties at quantum critical points.
The EuroQUAM inauguration conference in Barcelona showcased cutting-edge results in cold quantum matter, a field with applications in high-precision measurement and quantum information. The conference aimed to stimulate collaborations between experiment and theory, highlighting the high quality of research in Europe.
Theoretical physicists discovered that measuring quantum particles causes interference, leading to a 'relaxed' state analogous to classical chaotic scattering. This finding has implications for quantum computing and information theory.
Researchers at the University of California - Santa Barbara and Ames Laboratory have discovered how fundamental particles in matter lose their quantum mechanical properties through interactions with their environment. This finding is key to unraveling how the classical world emerges from interacting quantum particles in matter.
Researchers propose a new state, called the quantum spin Hall effect, which can carry electric currents without doping and displays reduced energy dissipation. This topologically distinct state has extraordinary properties, including edge confinement of electrical current.
Physicists have observed an elusive quantum state where fermions with mismatched numbers of dance partners exhibit unbalanced superfluid behavior. This finding has opened new avenues for investigation, particularly in the context of exotic matter found in Quark Stars.
For the first time, researchers at Rice University have succeeded in creating and observing an elusive and long-sought quantum state. The team cooled a mixture of fermionic lithium-6 atoms to extremely low temperatures, allowing them to study superfluidity with precision.
Researchers from Rice University and international teams found a collapse of Fermi volume in quantum critical matters, leading to new insights into exotic electronic properties. This discovery may provide routes to new classes of material and shed light on high-temperature superconductivity.