Fatima Abdalbagi, Serestina Viriri, M. T. Mohammed
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引用次数: 0
摘要
随着所有生活方式的巨大创新改善,建立临床领域变得非常重要,记住治疗的发现;有效的治疗依赖于术前。用于术前的模型,例如,计划了解肝脏复杂的内部结构并精确定位肝脏表面及其肿瘤;目前已经提出了多种算法来实现自动肝脏分割。在本文中,我们提出了一种Batch Normalization After All Convolutional Neural Network (BATA-Convnet)模型,利用深度学习技术对肝脏CT图像进行分割。本文提出的肝分割模型主要包括预处理、训练BATA-Convnet、肝分割和最大化结果效率的后处理四个步骤。使用医学图像计算与计算机辅助干预(MICCAI)数据集和3d图像重建算法对比数据库(3D-IRCAD)进行实验,MICCAI的平均结果为Dice的0.91%,VOE的13.44%,RVD的0.23%,ASD的0.29mm, RMSSD的1.35mm和MaxASD的0.36mm。使用3DIRCAD数据集的平均结果是Dice为0.84%,VOE为13.24%,RVD为0.16%,ASD为0.32mm, RMSSD为1.17mm, MaxASD为0.33mm。
Batch Normalized Convolution Neural Network for Liver Segmentation
With the huge innovative improvement in all lifestyles, it has been important to build up the clinical fields, remembering the finding for which treatment is done; where the fruitful treatment relies upon the preoperative. Models for the preoperative, for example, planning to understand the complex internal structure of the liver and precisely localize the liver surface and its tumors; there are various algorithms proposed to do the automatic liver segmentation. In this paper, we propose a Batch Normalization After All Convolutional Neural Network (BATA-Convnet) model to segment the liver CT images using Deep Learning Technique. The proposed liver segmentation model consists of four main steps: pre-processing, training the BATA-Convnet, liver segmentation, and the postprocessing step to maximize the result efficiency. Medical Image Computing and Computer Assisted Intervention (MICCAI) dataset and 3DImage Reconstruction for Comparison of Algorithm Database (3D-IRCAD) were used in the experimentation and the average results using MICCAI are 0.91% for Dice, 13.44% for VOE, 0.23% for RVD, 0.29mm for ASD, 1.35mm for RMSSD and 0.36mm for MaxASD. The average results using 3DIRCAD dataset are 0.84% for Dice, 13.24% for VOE, 0.16% for RVD, 0.32mm for ASD, 1.17mm for RMSSD and 0.33mm for MaxASD.