Neuron image segmentation based on convolution and BN fusion and multi-input feature fusion

Fuyun He, Huiling Feng, Xiaohu Tang
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Abstract

The segmentation of neuronal morphology in electron microscopy images is crucial for the analysis and understanding of neuronal function. However, most of the existing segmentation methods are not suitable for challenging datasets where the neuronal structure is contaminated by noise or has interrupted parts. In this paper, we propose a segmentation method based on deep learning to determine the location information of neurons and reduce the influence of image noise in the data. Specifically, we adapt our neuron dataset based on UNet by using convolution with BN fusion and multi-input feature fusion. The method is named REDAFNet. The model simplifies the model structure and enhances the generalization ability by fusing the convolution layer and BN layer. The noise interference in the data was reduced by multi-input feature fusion, and the ability to understand and express the data was enhanced. The method takes a neuron image as input and its pixel segmentation map as output. Experimental results show that the segmentation accuracy of the proposed method is 91.96%, 93.86% and 80.25% on the ISBI2012 dataset, U-RISC retinal neuron dataset and N2DH-GOWT1 stem cell dataset, respectively. Compared with the existing segmentation methods, the proposed method can extract more complete feature information and achieve more accurate segmentation.
基于卷积和 BN 融合以及多输入特征融合的神经元图像分割
电子显微镜图像中神经元形态的分割对于分析和理解神经元功能至关重要。然而,现有的大部分分割方法都不适合神经元结构被噪声污染或有中断部分的挑战性数据集。在本文中,我们提出了一种基于深度学习的分割方法,以确定神经元的位置信息并减少数据中图像噪声的影响。具体来说,我们通过使用卷积与 BN 融合和多输入特征融合,调整了基于 UNet 的神经元数据集。该方法被命名为 REDAFNet。该模型通过融合卷积层和 BN 层,简化了模型结构,增强了泛化能力。多输入特征融合降低了数据中的噪声干扰,增强了对数据的理解和表达能力。该方法以神经元图像为输入,以其像素分割图为输出。实验结果表明,该方法在 ISBI2012 数据集、U-RISC 视网膜神经元数据集和 N2DH-GOWT1 干细胞数据集上的分割准确率分别为 91.96%、93.86% 和 80.25%。与现有的分割方法相比,所提出的方法能提取更完整的特征信息,实现更精确的分割。
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