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Using Deep Learning and Convolutional Neural Networks to Identify Cardiac Arrhythmia Heart Disease

Bigambar Ghodake

Abstract


This paper aims to use electrocardiogram signals and convolutional neural networks to find cardiac arrhythmia, a type of heart disease. The new super advanced Electrocardiogram sensors and other clinical gadgets have fundamentally worked on the amount and nature of Electrocardiogram accounts in high volume. Moreover, the accessibility of high figuring GPUs have made it simple to handle enormous measure of information in a short measure of time. We have fostered a strategy for Electrocardiogram arrhythmia characterization which changes over Electrocardiogram signs to two layered pictures to be handled with convolutional brain organizations, which is a type of profound AI. Profound learning has been shown to be a powerful means for complex information investigation with insignificant pre-and post-handling necessity. This study's primary instrument is it. We utilize the proposed convolutional brain networks engineering for grouping cardiovascular arrhythmia into three particular classes: paced rhythm, normal sinus rhythm, and other rhythms The Electrocardiogram signal is changed over into a two-layered greyscale picture and utilized as information for the convolutional brain networks classifier. We utilize different profound learning strategies like group standardization, information increase, and averaging-based include total across time. We utilize a few picture crop procedures for information expansion and K crease get approval for defeating over-fitting. Based on the data we obtained from the 2017 PhysioNet/CinC Challenge, the proposed classifier has a classification accuracy of over 95%.


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References


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