Pseudo-fermionization of 1-D bosons in optical lattices
Guido Pupillo, Ana Maria Rey, Carl J. Williams, Charles W. Clark
Abstract
We present a model that generalizes the Bose-Fermi mapping for strongly correlated 1D bosons in an optical lattice, to cases in which the average number of atoms per site is larger than one. This model gives an accurate account of equilibrium properties of such systems, in parameter regimes relevant to current experiments. The application of this model to non-equilibrium phenomena is explored by a study of the dynamics of an atom cloud subject to a sudden displacement of the confining potential. Good agreement is found with results of recent experiments. The simplicity and intuitive appeal of this model make it attractive as a general tool for understanding bosonic systems in the strongly correlated regime.
Create a lesson
Related papers
Quantum Spin Wave Theory with Multi-Spin Interactions for Magnetic Materials Modeling
Andrey Rybakov, Marco Marino, Yaroslav M. Blanter et al.
A Construction Framework for Three-Dimensional Topological Magnetic Textures
Maria Azhar, Sandra C. Shaju, Karin Everschor-Sitte
Current control of spin-wave transport in YIG via the VO2 insulator-to-metal transition
Aleksei A. Nikitin, Nikolai Kuznetsov, Lukáš Flajšman et al.
Continuum Dirac Theory and Nonlinear Extensions of a Chain of Alternating non-linear springs: an SSH version of the Fermi-Pasta-Ulam-Tsingou model
Gerardo G. Naumis, Ilder I. Salgado, Jorge Fujioka
Synchronization and Spatiotemporal Phases in Driven Precessing Domain Walls
Luz Pérez Herrera, Enzo Fabrizio Pusiol, Alejandro B. Kolton
Galilean electrodynamics fluctuation in a superfluid: from general coordinate invariance to Tkachenko mode
Neng-Chun Chiu, Tzu-Ken Shen, Siau Ihan