基于u - net的MR图像心脏分割系统:模糊池化层类型的影响

Riandini, T. A. Sardjono, K. Purnama, E. M. Yuniarno, M. Purnomo
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引用次数: 0

摘要

尽管在治疗方面取得了重大进展,但心血管疾病仍然是全球(包括印度尼西亚)疾病和死亡的主要原因,造成了巨大的财政消耗。为了支持这种疾病的识别,生物医学图像分割,包括电影心脏MRI,越来越多地被用于从心脏MRI扫描中自动提取重要的功能参数。卷积神经网络(CNN),特别是U-Net架构,已经成为这项任务的热门。然而,传统的最大池化操作在cnn中用于图像分割,会导致空间信息的丢失和对输入图像微小变化的敏感性,潜在地限制了网络的泛化能力。为了解决这些局限性,本文提出了一种优化的改进U-Net神经网络模型,并扩展了模糊池化层。模糊池化考虑池化区域内的所有值,根据它们与最大值的距离分配权重,以保留空间信息并降低对小输入变化的敏感性。实验结果表明,模糊池化技术在心脏MRI图像分割中优于最大池化技术。模糊池化技术的IoU值较高,舒张末期为93.429%,收缩期为85.802%;Hausdorff距离较小,舒张末期为3.0,收缩期为3.1622,准确率较高。该方法有望提高自动图像分割诊断心血管疾病的有效性,最终为患者带来更好的结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A U-Net-Based System for Cine Cardiac Segmentation on MR Images: The Effect of Fuzzy Pooling Layer Type
Despite the significant advancements in its treatment, cardiovascular disease remains a major cause of illness and death globally, including Indonesia, creating a major financial drain. To support the identification of this disease, biomedical image segmentation, including cine cardiac MRI, is increasingly being used to automatically extract important functional parameters from MRI scans of the heart. Convolutional neural networks (CNN), particularly the U-Net architecture, have become popular for this task. However, traditional max pooling operations used in CNNs for image segmentation can lead to the loss of spatial information and sensitivity to small changes in the input image, potentially limiting the network’s generalization ability. To address these limitations, this paper proposes an optimized modified U-Net neural network model with a fuzzy pooling layer extension. The fuzzy pooling considers all values within a pooling region, assigning weights based on their distance from the maximum value to preserve spatial information and reduce sensitivity to small input changes. Based on the experiment, the fuzzy pooling technique outperforms the max pooling technique for cine cardiac MRI image segmentation. The fuzzy pooling technique resulted in higher IoU values of 93.429% for End-Diastole and 85.802% for End-Systole, and smaller Hausdorff distance of 3.0 for End-Diastole and 3.1622 for End-Systole, indicating better accuracy. The proposed approach is expected to improve the effectiveness of automated image segmentation for diagnosing cardiovascular disease, which ultimately leads to better outcomes for patients.
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