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Oversampling for Imbalanced Learning Based on K-Means and SMOTE
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Learning from class-imbalanced data continues to be a common and challenging problem in supervised learning as standard classification algorithms are designed to handle balanced class distributions. While different strategies exist to tackle this problem, methods which generate artificial data to achieve a balanced class distribution are more versatile than modifications to the classification algorithm. Such techniques, called oversamplers, modify the training data, allowing any classifier to be used with class-imbalanced datasets. Many algorithms have been proposed for this task, but most are complex and tend to generate unnecessary noise. This work presents a simple and effective oversampling method based on k-means clustering and SMOTE oversampling, which avoids the generation of noise and effectively overcomes imbalances between and within classes. Empirical results of extensive experiments with 71 datasets show that training data oversampled with the proposed method improves classification results. Moreover, k-means SMOTE consistently outperforms other popular oversampling methods. An implementation is made available in the python programming language.
Forward citations
Cited by 2 Pith papers
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Fairer Analysis and Demographically Balanced Face Generation for Fairer Face Verification
A controlled variant of the DCFace diffusion pipeline that balances sensitive attributes produces synthetic training data with better face-verification fairness than resampling or weighting baselines.
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Deep Learning Meets Oversampling: A Learning Framework to Handle Imbalanced Classification
AutoSMOTE uses Gumbel-Softmax to learn discrete oversampling rules per minority sample, reporting modest average-rank gains over SMOTE-family baselines.
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