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Topological biclustering ARTMAP for identifying within bicluster relationships
Raghu Yelugam1, Leonardo Enzo Brito da Silva1, Donald C Wunsch Ii2
1Applied Computational Intelligence Laboratory, Missouri University of Science and Technology, Rolla, MO, USA.
Summary
TopoBARTMAP, a novel biclustering method, enhances data analysis by integrating adaptive resonance theory (ART) with topological learning. This approach improves module extraction and identifies complex patterns in cancer datasets.
Area of Science:
- Computational biology
- Data mining
- Machine learning
Background:
- Biclustering is vital for exploratory data analysis in gene expression and social networks.
- Topological learning excels at identifying complex, connected data regions.
- Existing methods struggle with simultaneous data reduction and topological feature detection.
Purpose of the Study:
- To introduce TopoBARTMAP, a novel hybrid biclustering algorithm.
- To enhance module extraction and data reduction capabilities.
- To leverage topological associations for improved biclustering.
Main Methods:
- Combines adaptive resonance theory (ART)-based biclustering ARTMAP (BARTMAP) and topological ART (TopoART).
- Develops a graphical representation for gene bicluster associations.
- Benchmarks TopoBARTMAP on 35 real-world cancer datasets and 12 synthetic datasets.
Main Results:
- TopoBARTMAP demonstrated statistically significant improvements over existing biclustering methods.
- The method excelled in identifying various bicluster types (constant, scale, shift, shift scale) in synthetic data.
- Refined graphical output effectively represents gene bicluster associations.
Conclusions:
- TopoBARTMAP offers superior performance in biclustering and module extraction.
- The integration of topological learning enhances the detection of complex data structures.
- This method provides a powerful tool for analyzing large-scale biological datasets, such as gene expression data.
Keywords:
Adaptive resonance theory (ART)BiclusteringGene Co-expressionGene expressionTopological data analysis
