BNU-Net: A Novel Deep Learning Approach for LV MRI Analysis in Short-Axis MRI

Wenhui Chu, Giovanni Molina, N. Navkar, C. Eick, Aaron T. Becker, P. Tsiamyrtzis, N. Tsekos
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引用次数: 4

Abstract

This work presents a novel deep learning architecture called BNU-Net for the purpose of cardiac segmentation based on short-axis MRI images. Its name is derived from the Batch Normalized (BN) U-Net architecture for medical image segmentation. New generations of deep neural networks (NN) are called convolutional NN (CNN). CNNs like U-Net have been widely used for image classification tasks. CNNs are supervised training models which are trained to learn hierarchies of features automatically and robustly perform classification. Our architecture consists of an encoding path for feature extraction and a decoding path that enables precise localization. We compare this approach with a parallel approach named U-Net. Both BNU-Net and U-Net are cardiac segmentation approaches: while BNU-Net employs batch normalization to the results of each convolutional layer and applies an exponential linear unit (ELU) approach that operates as activation function, U-Net does not apply batch normalization and is based on Rectified Linear Units (ReLU). The presented work (i) facilitates various image preprocessing techniques, which includes affine transformations and elastic deformations, and (ii) segments the preprocessed images using the new deep learning architecture. We evaluate our approach on a dataset containing 805 MRI images from 45 patients. The experimental results reveal that our approach accomplishes comparable or better performance than other state-of-the-art approaches in terms of the Dice coefficient and the average perpendicular distance.
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BNU-Net:一种新的用于短轴MRI左室MRI分析的深度学习方法
这项工作提出了一种新的深度学习架构,称为BNU-Net,用于基于短轴MRI图像的心脏分割。它的名字来源于医学图像分割的批归一化(BN) U-Net架构。新一代的深度神经网络(NN)被称为卷积神经网络(CNN)。像U-Net这样的cnn被广泛用于图像分类任务。cnn是一种监督训练模型,它被训练成自动学习特征层次并鲁棒地执行分类。我们的架构包括用于特征提取的编码路径和用于精确定位的解码路径。我们将这种方法与一种名为U-Net的并行方法进行比较。BNU-Net和U-Net都是心脏分割方法:BNU-Net对每个卷积层的结果采用批处理归一化,并应用指数线性单元(ELU)方法作为激活函数,而U-Net不应用批处理归一化,而是基于整流线性单元(ReLU)。所提出的工作(i)促进了各种图像预处理技术,包括仿射变换和弹性变形,以及(ii)使用新的深度学习架构对预处理图像进行分割。我们在包含45名患者的805张MRI图像的数据集上评估了我们的方法。实验结果表明,我们的方法在Dice系数和平均垂直距离方面取得了与其他先进方法相当或更好的性能。
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