Deep transfer learning based hierarchical CAD system designs for SFM images.

Q3 Engineering
Jyoti Rani, Jaswinder Singh, Jitendra Virmani
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引用次数: 0

Abstract

Present work involves rigorous experimentation for classification of mammographic masses by employing four deep transfer learning models using hierarchical framework. Experimental work is carried on 518 SFM images of DDSM dataset with 208, 150 and 160 images of probably benign, suspicious- malignant and highly malignant classes, respectively. ResNet50 model is used for generating segmented mass images. For hierarchical classification framework, at node 1, the segmented mass image is classified as belonging to probably benign (BIRAD-3) class or suspicious abnormality (BIRAD-4 and BIRAD-5) class. At node 2, the segmented mass image belonging to suspicious abnormality class is further classified as suspicious malignant (BIRAD-4) class or highly malignant (BIRAD-5) class. Deep transfer learning based hierarchical CAD systems experimented in the present work include VGG16/VGG19/ GoogleNet/ResNet50 models. It was noted that deep transfer learning model VGG19 at node 1 and VGG16 at node 2, yielded highest classification accuracy of 93 % and 90 %, respectively, therefore, a deep transfer learning based hybrid hierarchical CAD system was developed by employing VGG19 at node 1 and VGG16 at node 2. This model yields overall classification accuracy of 88 %. Further, hybrid hierarchical CAD system was designed using VGG19/ANFC-LH classifier at node 1, and VGG16/ANFC-LH classifier at node 2 yielding the highest classification accuracy of 92%. The promising result yielded by hybrid hierarchical CAD system design indicates its usefulness for step-wise classification of mammographic masses.

基于深度迁移学习的SFM图像分层CAD系统设计。
目前的工作包括通过采用分层框架的四种深度迁移学习模型进行乳腺肿块分类的严格实验。对DDSM数据集的518张SFM图像进行了实验,其中可能良性、可疑恶性和高度恶性分类的图像分别为208、150和160张。使用ResNet50模型生成分割的大块图像。对于分级分类框架,在节点1,将分割的肿块图像分为可能良性(BIRAD-3)类或可疑异常(BIRAD-4和BIRAD-5)类。在节点2处,将属于可疑异常类的分割肿块图像进一步分类为可疑恶性(BIRAD-4)类或高度恶性(BIRAD-5)类。本文实验的基于深度迁移学习的分层CAD系统包括VGG16/VGG19/ GoogleNet/ResNet50模型。由于节点1的深度迁移学习模型VGG19和节点2的VGG16的分类准确率最高,分别达到93%和90%,因此,将节点1的VGG19和节点2的VGG16分别应用于深度迁移学习,构建了基于深度迁移学习的混合分层CAD系统。该模型的总体分类准确率为88%。在节点1使用VGG19/ANFC-LH分类器,节点2使用VGG16/ANFC-LH分类器设计混合分层CAD系统,分类准确率最高,达到92%。混合分层CAD系统设计的良好结果表明其对乳腺肿块的逐步分类是有用的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Journal of Medical Engineering and Technology
Journal of Medical Engineering and Technology Engineering-Biomedical Engineering
CiteScore
4.60
自引率
0.00%
发文量
77
期刊介绍: The Journal of Medical Engineering & Technology is an international, independent, multidisciplinary, bimonthly journal promoting an understanding of the physiological processes underlying disease processes and the appropriate application of technology. Features include authoritative review papers, the reporting of original research, and evaluation reports on new and existing techniques and devices. Each issue of the journal contains a comprehensive information service which provides news relevant to the world of medical technology, details of new products, book reviews, and selected contents of related journals.
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