Statistics of maximal independent sets in grid-like graphs
Levi Axelrod, Nathan Bickel, Anastasia Halfpap, Luke Hawranick, Alex Parker, Cole Swain

TL;DR
This paper investigates the properties of maximal independent sets in grid-like graphs, focusing on enumeration, parity, average size, and non-isomorphic counts, extending understanding beyond standard rectangular grids to more complex surface-like structures.
Contribution
It introduces analysis of MIS properties in grid-like graphs, including parity, average size, and non-isomorphic counts, for graphs with local grid structure but complex global topology.
Findings
Parity of MIS sets determined for various grid-like graphs
Average size of MIS's computed in different grid-like structures
Number of non-isomorphic MIS's characterized in these graphs
Abstract
An independent set in a graph is maximal if is not properly contained in any other independent set of . The study of maximal independent sets (MIS's) in various graphs is well-established, often focusing upon enumeration of the set of MIS's. For an arbitrary graph , it is typically quite difficult to understand the number and structure of MIS's in ; however, when has regular structure, the problem may be more tractable. One class of graphs for which enumeration of MIS's is fairly well-understood is the rectangular grid graphs . We say a graph is grid-like if it is locally isomorphic to a square grid, though the global structure of such a graph might resemble a surface such as a torus or M\"obius strip. We study the properties of MIS's in various types of grid-like graphs, in particular determining parity of the set of MIS's, average size of…
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Taxonomy
TopicsAdvanced Graph Theory Research · Graph theory and applications · Computational Geometry and Mesh Generation
