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Banzhaf random forests: Cooperative game theory based random forests with consistency
Jianyuan Sun1, Guoqiang Zhong1, Kaizhu Huang2
1Department of Computer Science and Technology, Ocean University of China, 238 Songling Road, Qingdao 266100, China.
This study introduces Banzhaf random forests (BRFs), a novel classification algorithm using cooperative game theory. BRFs enhance feature importance evaluation and classification accuracy, bridging the gap between random forests theory and application.
Area of Science:
- Machine Learning
- Computational Statistics
- Game Theory
Background:
- Random forests are widely applied but lack theoretical depth.
- Existing methods like information gain ratio overlook feature interdependencies.
Purpose of the Study:
- To propose a novel random forests classification algorithm, Banzhaf random forests (BRFs).
- To enhance feature importance evaluation using cooperative game theory.
- To improve classification accuracy and theoretical understanding of random forests.
Main Methods:
- Developed a new random forests algorithm, BRFs, integrating cooperative game theory.
- Utilized the Banzhaf power index to assess feature importance by analyzing feature coalitions.
- Proved the consistency of the BRFs algorithm.
Main Results:
- BRFs demonstrate superior classification accuracy compared to existing consistent random forests.
- BRFs performance is comparable or better than Breiman's random forests, SVMs, and KNNs.
- The Banzhaf power index effectively captures feature dependencies.
Conclusions:
- BRFs offer a theoretically sound and practically effective advancement in random forests classification.
- The integration of cooperative game theory provides a novel approach to feature evaluation.
- BRFs successfully narrow the gap between random forests theory and real-world applications.
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