Superconducting transition temperature of the Bose one-component plasma

Abstract

We present results of first principle numerical simulations of the Bose one-component plasma, i.e., a Bose gas with pairwise Coulomb interactions among particles and a uniform neutralizing background. We compute the superconducting transition temperature for a wide range of densities, in two and three dimensions, for both continuous and lattice versions of the model. Our results are of direct relevance to quantitative studies of bipolaron mechanisms of (high-temperature) superconductivity.

5 pages, 5 figures

References in corpus (3)

• Worm Algorithm and Diagrammatic Monte Carlo: A New Approach to Continuous-Space Path Integral Monte Carlo Simulations
• The critical exponents of the superfluid transition in He4
• Note: A pairwise form of the Ewald sum for non-neutral systems

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• Extraordinary-log Universality of Critical Phenomena in Plane Defects
• "Quantum bipolaron" superconductivity from quadratic electron-phonon coupling
• Soliton States From Quadratic Electron-Phonon Interaction
• Light polarons with electron-phonon coupling
• Clock Factorized Quantum Monte Carlo Method for Long-range Interacting Systems
• Many-body phases from effective geometrical frustration and long-range interactions in a subwavelength lattice
• Quantum Monte Carlo study of thin parahydrogen films on graphite
• Bose one-component plasma in 2D: a Monte Carlo study
• Liquid-liquid transition in a Bose fluid near collapse