Periodical publishing
Researchers at the University of Ulm have proposed a novel approach to test general relativistic phenomena in a low-energy quantum mechanical setting. By exploring the gravitational interaction of angular momentum eigenstates in the post-Newtonian limit, this method offers a distinct way to observe nonclassical gravitational effects. The study suggests that
Quantum mechanics
Researchers at the Institute of Physics have published a new study on the dynamics of thermalization in quantum many-body systems. The study, titled "Chaotic and quantum dynamics in driven-dissipative bosonic chains," provides a detailed analysis of the thermalization process in a Bose-Hubbard chain, a system used in circuit
Periodical publishing
Researchers at the University of Ulm have proposed a novel approach to test general relativistic phenomena in a low-energy quantum mechanical setting. By exploring the gravitational interaction of angular momentum eigenstates in the post-Newtonian limit, this method offers a distinct way to observe nonclassical gravitational effects. The study suggests that
Quantum mechanics
Researchers at the Institute of Physics have published a new study on the dynamics of thermalization in quantum many-body systems. The study, titled "Chaotic and quantum dynamics in driven-dissipative bosonic chains," provides a detailed analysis of the thermalization process in a Bose-Hubbard chain, a system used in circuit
Periodical publishing
Researchers at the University of Ulm have proposed a novel approach to test general relativistic phenomena in a low-energy quantum mechanical setting. By exploring the gravitational interaction of angular momentum eigenstates in the post-Newtonian limit, this method offers a distinct way to observe nonclassical gravitational effects. The study suggests that
Quantum mechanics
Researchers at the Institute of Physics have published a new study on the dynamics of thermalization in quantum many-body systems. The study, titled "Chaotic and quantum dynamics in driven-dissipative bosonic chains," provides a detailed analysis of the thermalization process in a Bose-Hubbard chain, a system used in circuit
Periodical publishing
Researchers at the University of Ulm have proposed a novel approach to test general relativistic phenomena in a low-energy quantum mechanical setting. By exploring the gravitational interaction of angular momentum eigenstates in the post-Newtonian limit, this method offers a distinct way to observe nonclassical gravitational effects. The study suggests that
Quantum mechanics
Researchers at the Institute of Physics have published a new study on the dynamics of thermalization in quantum many-body systems. The study, titled "Chaotic and quantum dynamics in driven-dissipative bosonic chains," provides a detailed analysis of the thermalization process in a Bose-Hubbard chain, a system used in circuit
Physicists
Researchers from the Okinawa Institute of Science and Technology (OIST) have designed and created a macroscopic levitation device that uses a graphite rotor and magnetic fields to achieve near-frictionless movement. This breakthrough brings the magic of levitation down to earth through precision engineering, eliminating the need for sophisticated setups and
Physicists
Physicists at the University at Buffalo have developed a method to simplify complex quantum systems, making it possible to solve them on an ordinary laptop rather than relying on supercomputers or artificial intelligence. The truncation Wigner approximation (TWA) is a physics shortcut that makes quantum math more manageable, and the
