Ground-state energy of confined charged bosons in two dimensions
A. Gonzalez, B. Partoens, A. Matulis, and F. M. Peeters

TL;DR
This study combines Pade approximant and variational Monte Carlo methods to accurately determine the ground-state energy of confined charged bosons in two dimensions, providing analytic expressions and validating results across densities.
Contribution
It introduces a combined approach using Pade approximants and Monte Carlo simulations to accurately estimate ground-state energies of 2D charged bosons in a trap, with validated low-error results.
Findings
Pade approximant error is less than 4% across densities
Analytic expressions for ground-state energy are derived
Method is accurate in dilute and high-density limits
Abstract
The Pade approximant technique and the variational Monte Carlo method are applied to determine the ground-state energy of a finite number of charged bosons in two dimensions confined by a parabolic trap. The particles interact repulsively through a Coulombic, 1/r, potential. Analytic expressions for the ground-state energy are obtained. The convergence of the Pade sequence and comparison with the Monte Carlo results show that the error of the Pade estimate is less than 4% at any boson density and is exact in the extreme situations of very dilute and high density.
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