The scaling dimension of low lying Dirac eigenmodes and of the topological charge density
MILC Collaboration: C. Aubin, C. Bernard, Steven Gottlieb, E.B., Gregory, Urs M. Heller, J.E. Hetrick, J. Osborn, R. Sugar, and D. Toussaint,, with: Ph. de Forcrand, O. Jahn

TL;DR
This paper investigates how the localization of low-lying Dirac eigenmodes and topological charge density relates to different topological objects in lattice gauge theories by analyzing their scaling behavior across various lattice spacings and volumes.
Contribution
It introduces a scaling analysis method to quantify the presence and correlation of various topological objects with eigenmode localization in lattice QCD.
Findings
Different topological objects have distinct co-dimensions affecting localization.
Scaling analysis reveals the relative abundance of topological objects.
Correlation between eigenmodes and topological structures is characterized.
Abstract
As a quantitative measure of localization, the inverse participation ratio of low lying Dirac eigenmodes and topological charge density is calculated on quenched lattices over a wide range of lattice spacings and volumes. Since different topological objects (instantons, vortices, monopoles, and artifacts) have different co-dimension, scaling analysis provides information on the amount of each present and their correlation with the localization of low lying eigenmodes.
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Taxonomy
TopicsTopological Materials and Phenomena · Cold Atom Physics and Bose-Einstein Condensates · Quantum and electron transport phenomena
