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Hybrid fuzzy based spearman rank correlation for cranial nerve palsy detection in MIoT environment

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Abstract

In the recent past, the micro vascular cranial nerve palsy has been detected from the EEG signal using the discrete wavelet transform and multi class support vector machine approach which examines each and every frequencies and features with effective manner. Though the epilepsy are identified using the various techniques, the accuracy and efficiency of the system with less error rate of the classifiers are still one of the major issues in Medical Internet of Things Environment (MIoT). Even though these methods retrieves the cranial nerve palsy which is termed as lack of function of nerves successfully, the efficiency of the system is must be improved. So effective epilepsy which causes cranial nerve palsy need to be analyzed and detect in an automatic manner for minimizing the number of deaths. These problems are reduced by using optimized signal decomposition, Exact feature extraction, selection and the recognition with less error rate has been computed with the help of the Fuzzy based twofold graphic discrete wavelet transform (FTF-TGTWT), hybrid Fuzzy based spearman rank correlation (HF-SRC) Then the performance of the system is analyzed using the experimental results and discussions.

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Correspondence to S. Baskar.

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This article is part of the Internet Of Medical Things In E-Health Hassan Fouad Mohamed-El-Sayed and M. Hemalatha

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Baskar, S., Dhulipala, V.R.S., Shakeel, P.M. et al. Hybrid fuzzy based spearman rank correlation for cranial nerve palsy detection in MIoT environment. Health Technol. 10, 259–270 (2020). https://doi.org/10.1007/s12553-019-00294-8

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