Exploiting the Structure of Bipartite Graphs for Algebraic and Spectral Graph Theory Applications
J\'er\^ome Kunegis

TL;DR
This paper extends algebraic graph analysis methods to bipartite networks, enabling improved clustering, visualization, link prediction, and bipartivity measurement in two-mode networks across various fields.
Contribution
It introduces modifications of algebraic graph theory techniques specifically for bipartite networks, filling a gap in existing network analysis literature.
Findings
Methods for clustering, visualization, and link prediction adapted for bipartite graphs.
New algebraic measures for bipartivity in near-bipartite graphs.
Applicability demonstrated across diverse real-world bipartite networks.
Abstract
In this article, we extend several algebraic graph analysis methods to bipartite networks. In various areas of science, engineering and commerce, many types of information can be represented as networks, and thus the discipline of network analysis plays an important role in these domains. A powerful and widespread class of network analysis methods is based on algebraic graph theory, i.e., representing graphs as square adjacency matrices. However, many networks are of a very specific form that clashes with that representation: They are bipartite. That is, they consist of two node types, with each edge connecting a node of one type with a node of the other type. Examples of bipartite networks (also called \emph{two-mode networks}) are persons and the social groups they belong to, musical artists and the musical genres they play, and text documents and the words they contain. In fact, any…
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