Basis of symmetric polynomials for many-boson light-front wave functions
arXiv:1409.6333 · doi:10.1103/PhysRevE.90.063310
Abstract
We provide an algorithm for the construction of orthonormal multivariate polynomials that are symmetric with respect to the interchange of any two coordinates on the unit hypercube and are constrained to the hyperplane where the sum of the coordinates is one. These polynomials form a basis for the expansion of bosonic light-front momentum-space wave functions, as functions of longitudinal momentum, where momentum conservation guarantees that the fractions are on the interval and sum to one. This generalizes earlier work on three-boson wave functions to wave functions for arbitrarily many identical bosons. A simple application in two-dimensional theory illustrates the use of these polynomials.
arXiv comment11 pages, 1 figure, RevTeX 4.1
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- Light-front theory using a many-boson symmetric-polynomial basis
- High Resolution Nonperturbative Light-Front Simulations of the True Muonium Atom
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- Nonperturbative True Muonium on the Light Front with TMSWIFT