Algebraic Model for Quantum Scattering. Reformulation, Analysis and Numerical Strategies
Nuclear Theory
2009-11-06 v1
Abstract
The convergence problem for scattering states is studied in detail within the framework of the Algebraic Model, a representation of the Schrodinger equation in an L^2 basis. The dynamical equations of this model are reformulated featuring new "Dynamical Coefficients", which explicitly reveal the potential effects. A general analysis of the Dynamical Coefficients leads to an optimal basis yielding well converging, precise and stable results. A set of strategies for solving the equations for non-optimal bases is formulated based on the asymptotic behaviour of the Dynamical Coefficients. These strategies are shown to provide a dramatically improved convergence of the solutions.
Cite
@article{arxiv.nucl-th/0005048,
title = {Algebraic Model for Quantum Scattering. Reformulation, Analysis and Numerical Strategies},
author = {V. S. Vasilevsky and F. Arickx},
journal= {arXiv preprint arXiv:nucl-th/0005048},
year = {2009}
}
Comments
31 pages, 41 postscript figures