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An Artificial Neural Network Classifier Design Based-on Variable Kernel and Non-Parametric Density Estimation

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Abstract

This paper proposes a probabilistic variant of the SOM-kMER (Self Organising Map-kernel-based Maximum Entropy learning Rule) model for data classification. The classifier, known as pSOM-kMER (probabilistic SOM-kMER), is able to operate in a probabilistic environment and to implement the principles of statistical decision theory in undertaking classification problems. A distinctive feature of pSOM-kMER is its ability in revealing the underlying structure of data. In addition, the Receptive Field (RF) regions generated can be used for variable kernel and non-parametric density estimation. Empirical evaluation using benchmark datasets shows that pSOM-kMER is able to achieve good performance as compared with those from a number of machine learning systems. The applicability of the proposed model as a useful data classifier is also demonstrated with a real-world medical data classification problem.

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Correspondence to Chee Siong Teh.

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Teh, C.S., Lim, C.P. An Artificial Neural Network Classifier Design Based-on Variable Kernel and Non-Parametric Density Estimation. Neural Process Lett 27, 137–151 (2008). https://doi.org/10.1007/s11063-007-9065-6

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  • DOI: https://doi.org/10.1007/s11063-007-9065-6

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