University of Bahrain
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Brain Tumor Classification Using Modified ResNet50V2 Deep Learning Model

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dc.contributor.author Sarada, Busi
dc.contributor.author Narasimha Reddy, Kuppireddy
dc.contributor.author singh, Mukti
dc.contributor.author Babu, Ramesh
dc.contributor.author Ramesh Babu, BSSV
dc.date.accessioned 2024-04-26T16:13:50Z
dc.date.available 2024-04-26T16:13:50Z
dc.date.issued 2024-04-26
dc.identifier.issn 2210-142X
dc.identifier.uri https://journal.uob.edu.bh:443/handle/123456789/5626
dc.description.abstract Accurate diagnosis and categorization of brain tumours are very necessary for establishing optimal treatment choices and forecasting the patient's probable prognosis. The histopathological analysis of biopsy specimens is still the gold standard for identifying and categorizing brain tumours in today's medical environment. The strategy that is now being used is one that is invasive, timeconsuming, and prone to human error. Because of these limitations, it is essential to use a completely automated method for multiclassification of brain tumours. The objective of this paper is to create a multi-classification of brain tumours using modified ResNet0V2 deep learning model. The accuracy of the traditional model has been improved by the addition of dropout layers, max pooling, and batch normalisation. Batch normalisation is used to normalise the activations of the preceding layer by scaling and changing their values to have zero mean and unit variance. This is accomplished by altering the scaling factor. Because of this, the impact of the internal covariate shift is reduced, training is sped up, the stability of the model is improved, and the performance of the model in generalization is elevated. The use of max pooling helps to minimise the number of parameters in the model, which in turn makes the model more computationally efficient. Max pooling also helps to improve the model's resilience to relatively minor shifts in the input. Dropout, on the other hand, helps to minimize overfitting by reducing the co-adaptation between neurons. This, in turn, forces the network to acquire characteristics that are more robust and generalizable. The proposed model was able to attain an accuracy in classification of 96.34% as a consequence of these adjustments. en_US
dc.language.iso en en_US
dc.publisher University of Bahrain en_US
dc.subject Brain tumor classification, ResNet50V2, batch normalization, maxpooling, droupout. en_US
dc.title Brain Tumor Classification Using Modified ResNet50V2 Deep Learning Model en_US
dc.identifier.doi http://dx.doi.org/10.12785/ijcds/XXXXXX
dc.volume 16 en_US
dc.issue 1 en_US
dc.pagestart 1 en_US
dc.pageend 10 en_US
dc.contributor.authorcountry India en_US
dc.contributor.authorcountry India en_US
dc.contributor.authorcountry India en_US
dc.contributor.authorcountry India en_US
dc.contributor.authorcountry India en_US
dc.contributor.authoraffiliation Associate Professor, Department of CSE (AI & ML), Ramachandra College of Engineering en_US
dc.contributor.authoraffiliation Assistant Professor, Department of ECE, Vardhaman college of Engineering en_US
dc.contributor.authoraffiliation Department of CSE, Kurukshetra university en_US
dc.contributor.authoraffiliation Professor, HOD, Department of ECE, Amrita sai institute of technology en_US
dc.contributor.authoraffiliation Associate Professor, Department of ECE, Raghu Engineering College en_US
dc.source.title International Journal of Computing and Digital Systems en_US
dc.abbreviatedsourcetitle IJCDS en_US


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