Advanced Cascaded Anisotropic Convolutional Neural Network Architecture Based Optimized Feature Selection Brain Tumour Segmentation and Classification

Sajana Shresta, S. M. N. Arosha Senanayake, Joko Triloka
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Abstract

The purpose of the research is to find out how deep learning and the convolutional neural network will contribute to diagnosis, early detection and segmentation of brain tumors such as glioma, benign, malignant, etc. The aim is to achieve a higher degree of segmentation quality to resolve issues related to lack of the classification accuracy and poor performance in the segmentation and detection of tumors. The presented solution is an Advanced Cascaded Anisotropic Convolutional Neural Network (CA-CNN) architecture with an optimized feature selection method. The DFP (Data collection, feature extraction & selection and prediction) taxonomy is presented that involves data acquiring, data pre-processing, feature extraction, selection and prediction methods for effective tumor segmentation and detection. The presented system will enhance the prediction accuracy and involves the genetic algorithm for effective selection of features which prevents data redundancy and reduce the delay in the detection of tumors. The utilization of genetic algorithm minimizes the redundancy within input voxels and facilitates in the optimal selection of features which improves the classification accuracy of the solution. The research conducted is to improve the brain tumor segmentation and detection process in terms of accuracy, specificity and sensitivity using multi-scale prediction and cross-validation.
基于优化特征选择的高级级联各向异性卷积神经网络结构
研究的目的是了解深度学习和卷积神经网络将如何有助于胶质瘤、良性、恶性等脑肿瘤的诊断、早期检测和分割。目的是为了达到更高的分割质量,以解决肿瘤的分割和检测中分类精度不足和性能不佳的问题。提出了一种具有优化特征选择方法的高级级联各向异性卷积神经网络(CA-CNN)结构。提出了DFP (Data collection, feature extraction & selection and prediction)分类法,该分类法包括数据采集、数据预处理、特征提取、选择和预测等方法,以实现有效的肿瘤分割和检测。该系统将提高预测精度,并采用遗传算法有效地选择特征,从而防止数据冗余并减少肿瘤检测的延迟。遗传算法的利用最大限度地减少了输入体素内的冗余,有利于特征的最优选择,提高了解的分类精度。本研究旨在通过多尺度预测和交叉验证,提高脑肿瘤分割检测过程的准确性、特异性和敏感性。
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