Journal Article10.59953/paperasia.v40i1b.57
Bag-Based Feature-Class Correlation Analysis for Multi-Instance Learning Application
Mazniha Berahim,Noor Azah Samsudin,Aida Mustapha,Rohayu Mohd Salleh,Muhammad Jaffri Mohd Nasir +4 more
TL;DR: Bag-Based Feature-Class Correlation Analysis for Multi-Instance Learning (MIL) improves image classification performance by selecting relevant features based on their correlation with the class label.
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Abstract: Multi-instance Learning (MIL) is widely applied in image classification. In MIL, an image is presented as a bag. A bag consists of multi-instance which is known as patches. Irrelevant features of the image presented to the classifier affects the classification performance. Feature selection is one of the essential phases to select relevant. However, limited studies discuss the feature selection phase in MIL. Correlation between feature-class (FC) relationship is one important criterion to analyse features’ relevance. However, it cannot be performed directly in MIL. To address this gap, this study proposed the MultiBag-FCCorr feature selection technique. It consists of three steps: transformation, evaluation and fusion. The bags of feature information are acquired from summarization from different statistical central tendency measures of trimmed mean, mode and median. In feature evaluation step, extended point biserial correlation has been used to measure FC correlation and then the FC score has been analysed. The selected features are validated via two prominent classifiers (Support Vector Machine (SVM) and K-Nearest Neighbour (KNN)) on benchmark MI image datasets: UCSB Breast Cancer, Tiger, Elephant and Fox datasets. The selected features of UCSB Breast Cancer dataset were reduced to 92% number of features from the proposed technique giving the best result of average accuracy with 86.8.% using SVM and 84.5% using KNN. The average accuracy improved 6.3% using SVM and 16.4% using KNN compared without implementing the proposed feature selection. The results proved that the selected feature set improved the performance of MI image classification.
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References
Feature selection in machine learning: A new perspective
TL;DR: This study discusses several frequently-used evaluation measures for feature selection, and surveys supervised, unsupervised, and semi-supervised feature selection methods, which are widely applied in machine learning problems, such as classification and clustering.
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Multiple-Instance Learning for Medical Image and Video Analysis
TL;DR: This meta-analysis shows that, besides being more convenient than SIL solutions, MIL algorithms are also more accurate in many cases, in other words, MIL is the ideal solution for many MIVA tasks.
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Yu Zhao,Fan Yang,Yuqi Fang,Hailing Liu,Zhou Niyun,Jun Zhang,Jiarui Sun,Sen Yang,Bjoern H. Menze,Xinjuan Fan,Jianhua Yao +10 more
- 14 Jun 2020
TL;DR: This paper develops a self-supervised learning mechanism to train the feature extractor based on a combination model of variational autoencoder and generative adversarial network (VAE-GAN) and proposes a novel instance-level feature selection method to select the discriminative instance features.





