Mott-glass phase of a one-dimensional quantum fluid with long-range interactions
arXiv:2007.02993 · doi:10.1103/PhysRevLett.125.235301
Abstract
We investigate the ground-state properties of quantum particles interacting via a long-range repulsive potential () or () that interpolates between the Coulomb potential and the linearly confining potential of the Schwinger model. In the absence of disorder the ground state is a Wigner crystal when . Using bosonization and the nonperturbative functional renormalization group we show that any amount of disorder suppresses the Wigner crystallization when ; the ground state is then a Mott glass, i.e., a state that has a vanishing compressibility and a gapless optical conductivity. For the ground state remains a Wigner crystal.
v2) 6+10 pages, 3+1 figures; v3) Supplemental Material updated
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