基于ADMM的单圈磁共振图像深度去噪先验增强

Aneeta Christopher, R. Harikishan, P. Sudeep
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引用次数: 1

摘要

最近,深度学习方法被用于图像恢复任务。由于缺乏大量的训练数据,无监督学习技术适用于许多实时应用。传统的深度图像先验(DIP)是一种基于CNN的去噪先验,仅使用单个退化图像执行不同的图像恢复任务。基于标准次梯度法的交替方向乘法器(ADMM)框架已经提出了DIP法。受此启发,我们提出了一种ADMM-DIP方法的变体,用于增强单线圈量级的磁共振(MR)图像。众所周知,单线圈级磁共振图像的噪声分布是平稳的。利用MSE、KL散度和感知损失函数的综合作用,实现了对单幅MR图像的去噪。采用注意力引导密集上采样网络(AUNet)作为CNN去噪先验。在模拟MR图像上的实验表明,该方法具有较好的性能。我们从定性和定量两方面评价了不同的去噪方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ADMM based Deep Denoiser Prior for Enhancing Single Coil Magnitude MR images
Recently, deep learning methods are employed for image restoration tasks. An unsupervised learning technique is appropriate for many real time applications due to the scarcity of a large amount of data for training. The conventional deep image prior (DIP) is a CNN based denoiser prior that perform different image restoration tasks by using only a single degraded image. Alternating Direction Method of Multipliers (ADMM) framework over a standard sub-gradient method has already been proposed with DIP method. Inspired by this, we propose a variant of ADMM-DIP method for enhancing single coil magnitude magnetic resonance (MR) images. It is well known that the noise distribution in single coil magnitude MR images is stationary Rician. We achieve the Rician noise removal from single MR image by utilizing the combined effect of MSE, KL divergence and perceptual loss functions. Also, the attention guided dense upsampling network (AUNet) was engaged as the CNN denoiser prior. Our experiments on simulated MR images indicate a better performance of the proposed method. We evaluated different denoising methods both qualitatively and quantitatively.
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