•Researchers at KRISS have identified that coherent photons, interacting via a resonator, directly cause dephasing in superconducting qubits.
•The dephasing profile was found to closely mirror the resonator's spectral characteristics, highlighting a precise relationship between these quantum components.
•Dynamical decoupling demonstrated robust capabilities in mitigating this coherence decay, offering a vital tool for quantum error control strategies.
•Researchers modeled a deformed polaron-molecule Hamiltonian on a quantum computer, enabling the study of quantum gravity at experimentally accessible energy scales.
•The study achieved a tenfold increase in sensitivity to ultraviolet deformations, overcoming previous limitations requiring Planck-scale energies.
•Experimental validation on a QRed superconducting quantum processor demonstrated measurable alterations in quasiparticle properties, opening new avenues for fundamental physics.
•Researchers at the University of Birmingham demonstrated that an 'entropic time' can be derived from the internal dynamics of a Bose-Einstein condensate.
•This internally-defined time successfully ordered events across 44 cycles of expansion and recollapse in a partitioned ultracold gas, establishing time as an emergent property.
•The experiment provides a critical controlled setting for quantitatively testing relational-time theories and frameworks like Wheeler-DeWitt in quantum gravity research.
•Researchers at KRISS have identified that coherent photons, interacting via a resonator, directly cause dephasing in superconducting qubits.
•The dephasing profile was found to closely mirror the resonator's spectral characteristics, highlighting a precise relationship between these quantum components.
•Dynamical decoupling demonstrated robust capabilities in mitigating this coherence decay, offering a vital tool for quantum error control strategies.
•Researchers modeled a deformed polaron-molecule Hamiltonian on a quantum computer, enabling the study of quantum gravity at experimentally accessible energy scales.
•The study achieved a tenfold increase in sensitivity to ultraviolet deformations, overcoming previous limitations requiring Planck-scale energies.
•Experimental validation on a QRed superconducting quantum processor demonstrated measurable alterations in quasiparticle properties, opening new avenues for fundamental physics.
•Researchers at the University of Birmingham demonstrated that an 'entropic time' can be derived from the internal dynamics of a Bose-Einstein condensate.
•This internally-defined time successfully ordered events across 44 cycles of expansion and recollapse in a partitioned ultracold gas, establishing time as an emergent property.
•The experiment provides a critical controlled setting for quantitatively testing relational-time theories and frameworks like Wheeler-DeWitt in quantum gravity research.