A Novel Strategy Selection Method for Multi-Objective Clustering Algorithms Using Game Theory
Mahsa Badami, Ali Hamzeh, Sattar Hashemi

TL;DR
This paper introduces a game-theoretic strategy selection method for multi-objective clustering that significantly reduces computational complexity, enabling efficient clustering of large datasets.
Contribution
It proposes a strategy subset selection approach that decreases payoff matrix size, improving efficiency in large-scale multi-objective clustering tasks.
Findings
Reduces time complexity of multi-objective clustering algorithms.
Enables handling of larger datasets with less computational resources.
Demonstrates significant efficiency improvements in clustering performance.
Abstract
The most important factors which contribute to the efficiency of game-theoretical algorithms are time and game complexity. In this study, we have offered an elegant method to deal with high complexity of game theoretic multi-objective clustering methods in large-sized data sets. Here, we have developed a method which selects a subset of strategies from strategies profile for each player. In this case, the size of payoff matrices reduces significantly which has a remarkable impact on time complexity. Therefore, practical problems with more data are tractable with less computational complexity. Although strategies set may grow with increasing the number of data points, the presented model of strategy selection reduces the strategy space, considerably, where clusters are subdivided into several sub-clusters in each local game. The remarkable results demonstrate the efficiency of the…
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Taxonomy
TopicsAdvanced Multi-Objective Optimization Algorithms · Metaheuristic Optimization Algorithms Research · Evolutionary Algorithms and Applications
