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Signed graphs in data sciences via communicability geometry

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arxiv 2403.07493 v2 pith:LE6KS43U submitted 2024-03-12 math.MG cs.DMcs.LGmath.COphysics.soc-ph

classification math.MGcs.DMcs.LGmath.COphysics.soc-ph
keywords signedgraphsdatacommunicabilityincludemetricssocialsystems
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Signed graphs are an emergent way of representing data in a variety of contexts where antagonistic interactions exist. These include data from biological, ecological, and social systems. Here we propose the concept of communicability for signed graphs and explore in depth its mathematical properties. We also prove that the communicability induces a hyperspherical geometric embedding of the signed network, and derive communicability-based metrics that satisfy the axioms of a distance even in the presence of negative edges. We then apply these metrics to solve several problems in the data analysis of signed graphs within a unified framework. These include the partitioning of signed graphs, dimensionality reduction, finding hierarchies of alliances in signed networks, and quantifying the degree of polarization between the existing factions in social systems represented by these types of graphs.

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  1. Robust Deep Signed Graph Clustering via Weak Balance Theory

    cs.SI 2025-02 conditional novelty 6.0 of 10

    DSGC improves K-way signed graph clustering by denoising edge signs, augmenting graph structure, and training a weak-balance encoder that separates negatively linked nodes.

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