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FRF-FHG: Constructing Fuzzy Hypergraphs Based on FRF
DOI: https://doi.org/10.62517/jike.202604130
Author(s)
Ziqian Zhao*, Xiaotong Zhang
Affiliation(s)
College of Science, North China University of Science and Technology, Tangshan, China *Corresponding Author
Abstract
The partitioning mechanisms of fuzzy hypergraphs predominantly rely on empirical rules, lacking explicit traceable paths that constrain model credibility and generalizability. To address this, we propose FRF-FHG, a fuzzy hypergraph construction method based on Fuzzy Random Forest (FRF). By building FRF from data and extracting complete branch paths from root to leaf nodes for each tree, we define fuzzy hyperedges as sample sets satisfying all path feature constraints, achieving effective mapping from rule space to hypergraph structure. To mitigate path redundancy, exponential growth of fuzzy hyperedges, and "densification" issues caused by FRF's inherent branching mechanism, we design a fuzzy hyperedge reduction strategy to precisely retain core association information between samples. Comparative and ablation experiments conducted on four cross-domain datasets demonstrate that FRF-FHG achieves robust and superior classification performance.
Keywords
FRF; Fuzzy Hypergraph; Fuzzy Hyperedge Reduction; Classification Model
References
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