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Instance Ranking Using Data Complexity Measures for Training Set Selection

  • Junaid Alam
  • T. Sobha RaniEmail author
Conference paper
Part of the Lecture Notes in Computer Science book series (LNCS, volume 11941)

Abstract

A classifier’s performance is dependent on the training set provided for the training. Hence training set selection holds an important place in the classification task. This training set selection plays an important role in improving the performance of the classifier and reducing the time taken for training. This can be done using various methods like algorithms, data-handling techniques, cost-sensitive methods, ensembles and so on. In this work, one of the data complexity measures, Maximum Fisher’s discriminant ratio (F1), has been used to determine the good training instances. This measure discriminates any two classes using a specific feature by comparing the class means and variances. This measure in particular provides the overlap between the classes. In the first phase, F1 of the whole data set is calculated. After that, F1 using leave-one-out method is computed to rank each of the instances. Finally, the instances that lower the F1 value are all removed as a batch from the data set. According to F1, a small value represents a strong overlap between the classes. Therefore if those instances that cause more overlap are removed then overlap will reduce further. Empirically demonstrated in this work, the efficacy of the proposed reduction algorithm (DRF1) using 4 different classifiers (Random Forest, Decision Tree-C5.0, SVM and kNN) and 6 data sets (Pima, Musk, Sonar, Winequality(R and W) and Wisconsin). The results confirm that the DRF1 leads to a promising improvement in kappa statistics and classification accuracy with the training set selection using data complexity measure. Approximately 18–50% reduction is achieved. There is a huge reduction of training time also.

Keywords

Maximum Fisher’s discriminant ratio Classification Batch removal Kappa statistics Instance ranking 

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Copyright information

© Springer Nature Switzerland AG 2019

Authors and Affiliations

  1. 1.School of Computer and Information SciencesUniversity of HyderabadHyderabadIndia

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