Abstract

We studied one-dimensional systems formed by N identical particles confined in a harmonic trap and subject to an inverse power-law interaction potential ~ |x|−d. The correlation properties of a Wigner molecule with the lowest energy are investigated in terms of their dependence on the number N and the power d, including the limit as d → 0. There are N-particle Wigner molecules with properties such that their correlations are mainly manifested in the N lowest natural orbitals. The values of the control parameters of the system at which such states appear are identified. The properties of Wigner molecules formed in the limit as d approaches infinity are also revealed.Graphical abstract

Highlights

  • Soon after the birth of quantum mechanics, the study of quantum correlations began to attract significant research attention

  • Within the framework of the harmonic approximation (HA), we studied the properties of the Wigner molecule formed by N identical particles confined in a harmonic trap and interacting via the inverse power-law potential |x|−d

  • Our results show the dependencies of the degree of correlation on d for the N -particle Wigner molecule ground-state in a wide range of values of N

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Summary

Introduction

Soon after the birth of quantum mechanics, the study of quantum correlations began to attract significant research attention. Other well-known examples of artificially created systems exhibiting long-range interactions are quantum dots [27,28] and systems of electromagnetically trapped ions [29]. Such systems exhibit a variety of strongly correlated states. It provides an effective procedure for the analysis of the special case as d → 0.

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