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Over the last decade new experimental tools and theoretical concepts are providing new insights into collective nonequilibrium behavior of quantum systems. The exquisite control provided by laser trapping and cooling techniques allows us to observe the behavior of condensed bose and degenerate Fermi gases under nonequilibrium drive or after `quenches' in which a Hamiltonian parameter is suddenly or slowly changed. On the solid state front, high intensity short-time pulses and fast (femtosecond) probes allow solids to be put into highly excited states and probed before relaxation and dissipation occur. Experimental developments are matched by progress in theoretical techniques ranging from exact solutions of strongly interacting nonequilibrium models to new approaches to nonequilibrium numerics. The summer school `Strongly interacting quantum systems out of equilibrium' held at the Les Houches School of Physics as its XCIX session was designed to summarize this progress, lay out the open questions and define directions for future work. This books collects the lecture notes of the main courses given in this summer school.
This volume investigates the theoretical frameworks and experimental observations governing the behavior of strongly interacting quantum systems when subjected to nonequilibrium conditions. The editors, Andrew J. Millis, Olivier Parcollet, and Thierry Giamarchi, curate a collection of pedagogical lecture notes from the 99th session of the Les Houches Summer School. The text synthesizes advancements in laser trapping, cold atom gases, and ultrafast solid-state spectroscopy to establish a comprehensive understanding of how quantum systems evolve after Hamiltonian quenches or external excitation.
What You Will Find
Scope Limits
Experts recognize this collection as a rigorous, high-level resource for graduate students and researchers specializing in condensed matter and many-body physics. Readers frequently note the technical density of the prose, which assumes a strong background in advanced quantum mechanics and statistical physics.
Page Count:
578
Publication Date:
2016-01-01
Publisher:
OUP Oxford
ISBN-10:
0191080543
ISBN-13:
9780191080548
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