This paper presents a captivating comparative analysis of supervised classification algorithms in machine learning. Focusing on Naive Bayes, Decision Tree, Random Forest, K-Nearest Neighbors (KNN) and Support Vector Machine (SVM), we carried out an in-depth evaluation based on twelve distinct criteria. A rigorous literature search revealed that each algorithm has its own strengths and limitations. This study shows that the choice of the optimal algorithm largely depends on the specific requirements of the application, the available resources and the particularities of the data. For example, some algorithms may offer better interpretability, while others are more robust or efficient in handling imprecise data. Our analysis also reveals that some algorithms are better suited to resource-constrained contexts, while others require considerable technical expertise and resources. In conclusion, this comparison provides valuable insights for practitioners seeking to select the best algorithm for their machine learning projects. By taking into account the various trade-offs between performance, complexity and adaptability, this work contributes to a better understanding of algorithmic choices as a function of specific data characteristics and practical constraints, enabling efficient optimization of supervised classification models.

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Comparative Analysis of Supervised Machine Learning Classification Models

  • Mouataz Idrissi Khaldi,
  • Allae Erraissi,
  • Mustapha Hain,
  • Mouad Banane

摘要

This paper presents a captivating comparative analysis of supervised classification algorithms in machine learning. Focusing on Naive Bayes, Decision Tree, Random Forest, K-Nearest Neighbors (KNN) and Support Vector Machine (SVM), we carried out an in-depth evaluation based on twelve distinct criteria. A rigorous literature search revealed that each algorithm has its own strengths and limitations. This study shows that the choice of the optimal algorithm largely depends on the specific requirements of the application, the available resources and the particularities of the data. For example, some algorithms may offer better interpretability, while others are more robust or efficient in handling imprecise data. Our analysis also reveals that some algorithms are better suited to resource-constrained contexts, while others require considerable technical expertise and resources. In conclusion, this comparison provides valuable insights for practitioners seeking to select the best algorithm for their machine learning projects. By taking into account the various trade-offs between performance, complexity and adaptability, this work contributes to a better understanding of algorithmic choices as a function of specific data characteristics and practical constraints, enabling efficient optimization of supervised classification models.