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Explore the fascinating intersection of ultracold atomic physics and quasicrystalline structures in this comprehensive lecture from the ICTP-SAIFR Program on Quantum Many-Body Dynamics. Delve into the experimental realization and theoretical foundations of ultracold atoms trapped in optical quasicrystal potentials, examining how these aperiodic structures influence quantum many-body behavior and thermalization processes. Learn about the unique properties of quasicrystals, including their lack of translational symmetry yet long-range order, and discover how these characteristics affect atomic transport, localization phenomena, and quantum phase transitions. Investigate the experimental techniques used to create optical quasicrystal lattices and the sophisticated methods employed to manipulate and probe ultracold atomic gases within these complex potential landscapes. Examine the implications for understanding thermalization violations and non-ergodic behavior in quantum many-body systems, with particular attention to how quasicrystalline disorder can lead to many-body localization and other exotic quantum phases. Gain insights into cutting-edge research connecting condensed matter physics, atomic physics, and quantum simulation, while exploring potential applications in quantum computing and quantum information processing.
Syllabus
Ulrich Schneider: Ultracold atoms in optical quasicrystals
Taught by
ICTP-SAIFR