Fast algorithms for edge coloring in clustered hypergraphs: A study of computational efficiency

The generalization of edge coloring in hypergraphs, especially clustered ones, remains an open problem due to the intricate structure and organization of hyper-edges grouped in clusters. This study addresses the computational challenges associated with edge coloring in clustered hypergraphs by introducing a novel suite of fast algorithms specifically designed to achieve improved accuracy and computation time. The algorithms utilize structural properties such as hypergraph Laplacian spectral features and submodular optimization to enhance efficiency. Experimental results demonstrate a 10-15% improvement in clustering accuracy and a 20% reduction in computational time compared to baseline methods, validating the approach for both synthetic and real-world datasets. These findings contribute to hypergraph theory and propose a practical solution for applications in network layout, parallel computing frameworks, and data organization. Future work could further optimize these algorithms for large-scale real-time applications.

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Publication Details

Journal
Edelweiss Applied Science and Technology
Published
2024-12-31
DOI
https://doi.org/10.55214/25768484.v8i6.4020
Primary Topic
Complex Network Analysis Techniques
Type
article
Field-Weighted Citation Impact
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article

Fast algorithms for edge coloring in clustered hypergraphs: A study of computational efficiency

Wasan Mustafa Jawad
Edelweiss Applied Science and Technology
Complex Network Analysis Techniques
article

Fast algorithms for edge coloring in clustered hypergraphs: A study of computational efficiency

Wasan Mustafa Jawad
article en

Abstract

The generalization of edge coloring in hypergraphs, especially clustered ones, remains an open problem due to the intricate structure and organization of hyper-edges grouped in clusters. This study addresses the computational challenges associated with edge coloring in clustered hypergraphs by introducing a novel suite of fast algorithms specifically designed to achieve improved accuracy and computation time. The algorithms utilize structural properties such as hypergraph Laplacian spectral features and submodular optimization to enhance efficiency. Experimental results demonstrate a 10-15% improvement in clustering accuracy and a 20% reduction in computational time compared to baseline methods, validating the approach for both synthetic and real-world datasets. These findings contribute to hypergraph theory and propose a practical solution for applications in network layout, parallel computing frameworks, and data organization. Future work could further optimize these algorithms for large-scale real-time applications.

Edelweiss Applied Science and TechnologyVol. 8(6)
Middle Technical University (IQ)
Industry, innovation and infrastructure
Openalex Percentile: Top 77%
Complex Network Analysis Techniques
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