Optimized Information Integration in Data Mining Using Ensemble Classification
Keywords:
Data mining, fusion, classification, rule-based mining, maximum entropyAbstract
Effectively integrating categorisation rules is crucial in data mining to improve predicted consistency and robustness. Traditional methods, including ensemble techniques and weighted rule aggregation, frequently do not maintain the structural integrity of classifier parameters. This study introduces an optimised information integration framework utilising maximum entropy classifiers, wherein classifier fusion is accomplished via the preservation of probabilistic parameters. The method combines non-parametric wave functions such as Dirichlet and Wishart for handling continuous distributions and uses regression analysis statistics across regulated input dimensions for generated classification. The wave parameters are systematically categorised first-order or higher-order populations, facilitating scalable implementation. Fusion is achieved by the multiplication of hyper-distributions, resulting in streamlined assignment formulae that preserve probabilistic attributes. The proposed strategy guarantees the preservation of critical hyper-distributions during integration, allowing their effective application in future organised training phases. This maximum entropy-based fusion methodology improves classifier interoperability and provides a reliable method for optimised information integration in complex data mining contexts.
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Copyright (c) 2025 C Priya, K Kumuthapriya, R Sankar, Anantha Raman Rathinam, M Venkatesan, K Jeevitha, Mohd Miskeen Ali, Dennis Surendar
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