Refining a chain theorem from matroids to internally 4-connected graphs

Graph theory and matroid theory are interconnected with matroids providing a way to generalize and analyze the structural and independence properties within graphs. Chain theorems, vital tools in both matroid and graph theory, enable the analysis of matroid structures associated with graphs. In a significant contribution, Chun, Mayhew, and Oxley [2] established a chain theorem for internally 4-connected binary matroids, clarifying the operations involved. Our research builds upon this by specifying the matroid result to internally 4-connected graphs. The primary goal of our research is to refine this chain theorem for matroids into a chain theorem for internally 4-connected graphs, making it more accessible to individuals less acquainted with matroid theory. • We establish the equivalence of internally 4-connectivity between matroids and graphs. • We refine the chain theorem on binary, internally 4-connected matroids to derive operations generating such a graph. • We introduce 19 operations integral to deriving our main theorem.

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Publication Details

Journal
Advances in Applied Mathematics
Published
2024-11-06
DOI
https://doi.org/10.1016/j.aam.2024.102802
Primary Topic
Advanced Graph Theory Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Refining a chain theorem from matroids to internally 4-connected graphs

Chanun Lewchalermvongs, Guoli Ding
Advances in Applied Mathematics
Advanced Graph Theory Research
article

Refining a chain theorem from matroids to internally 4-connected graphs

Chanun Lewchalermvongs, Guoli Ding
article en

Abstract

Graph theory and matroid theory are interconnected with matroids providing a way to generalize and analyze the structural and independence properties within graphs. Chain theorems, vital tools in both matroid and graph theory, enable the analysis of matroid structures associated with graphs. In a significant contribution, Chun, Mayhew, and Oxley [2] established a chain theorem for internally 4-connected binary matroids, clarifying the operations involved. Our research builds upon this by specifying the matroid result to internally 4-connected graphs. The primary goal of our research is to refine this chain theorem for matroids into a chain theorem for internally 4-connected graphs, making it more accessible to individuals less acquainted with matroid theory. • We establish the equivalence of internally 4-connectivity between matroids and graphs. • We refine the chain theorem on binary, internally 4-connected matroids to derive operations generating such a graph. • We introduce 19 operations integral to deriving our main theorem.

Advances in Applied MathematicsVol. 163
Louisiana State University (US), Mahidol University (TH), Centre of Excellence in Mathematics (TH)
Openalex Percentile: Top 76%
Advanced Graph Theory Research
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