基于深度学习的医学图像分割

S. Navya, P. Nishitha, V. Hema
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引用次数: 0

摘要

医学成像的分类是专家和放射科医生坚持疾病的末期。基于卷积大脑关系(cnn)的基础研究用于帮助临床结束时的灵活性。三个系统被认为是区分受影响的组织。CNN将图像的每一个像素都识别为一个有趣和无趣的位置。然后使用RoI来分离受影响的区域。第二种方法使用可扩展和改进的技术(自动编码器)从图像数据中去除像素位置信息。非卷积层分离了与相对特征相关联的地理信息,也忘记了检索层中突出组件的重要信息。在第三个结构中,U-Net思想模块接收相关病房信息。调整通道大小、读取速率和k-折痕截面验证以打破膜相似系数(DSC)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Medical Image Segmentation Using Deep Learning
The classification of medical imaging is that specialists and radiologists stick to the end of the disorder. Basic studies based on convolutional cerebrum relationships (CNNs) are used to aid flexibility at the end of the clinic. Three systems are considered to distinguish affected tissues. CNN contextually identifies every single pixel of the image as an a location that is both intriguing and uninteresting. RoI is then used to separate the impacted area. The second method removes pixel position information from image data using scalable and improved techniques (autoencoders). The non-convolutional layer separates geographic information associated with opposing features and also forgets to retrieve important ward information for prominent components of the level. In the third structure, the U-Net thought module receives the relevant ward information. Channel size, read rate, and k-crease section verification were adjusted to break the membrane similarity coefficient (DSC).
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