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M-ar-K-Fast Independent Component Analysis

arXiv 2108.07908 ↗First posted 17 Aug 2021cs.LG cs.AI cs.CVcited by 0

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Abstract (arXiv)

This study presents the m-arcsinh Kernel ('m-ar-K') Fast Independent Component Analysis ('FastICA') method ('m-ar-K-FastICA') for feature extraction. The kernel trick has enabled dimensionality reduction techniques to capture a higher extent of non-linearity in the data; however, reproducible, open-source kernels to aid with feature extraction are still limited and may not be reliable when projecting features from entropic data. The m-ar-K function, freely available in Python and compatible with its open-source library 'scikit-learn', is hereby coupled with FastICA to achieve more reliable feature extraction in presence of a high extent of randomness in the data, reducing the need for pre-whitening. Different classification tasks were considered, as related to five (N = 5) open access datasets of various degrees of information entropy, available from scikit-learn and the University California Irvine (UCI) Machine Learning repository. Experimental results demonstrate improvements in the classification performance brought by the proposed feature extraction. The novel m-ar-K-FastICA dimensionality reduction approach is compared to the 'FastICA' gold standard method, supporting its higher reliability and computational efficiency, regardless of the underlying uncertainty in the data.

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References · 11

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  10. 2020m-arcsinh: An Efficient and Reliable Function for SVM and MLP in scikit-learncited by 1
  11. 2020hyper-sinh: An Accurate and Reliable Function from Shallow to Deep Learning in TensorFlow and Kerascited by 1

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