Trustworthy Limited Data CT Reconstruction Using Progressive Artifact Image Learning

Jianjia Zhang;Zirong Li;Jiayi Pan;Shaoyu Wang;Weiwen Wu
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Abstract

The reconstruction of limited data computed tomography (CT) aims to obtain high-quality images from a reduced set of projection views acquired from sparse views or limited angles. This approach is utilized to reduce radiation exposure or expedite the scanning process. Deep Learning (DL) techniques have been incorporated into limited data CT reconstruction tasks and achieve remarkable performance. However, these DL methods suffer from various limitations. Firstly, the distribution inconsistency between the simulation data and the real data hinders the generalization of these DL-based methods. Secondly, these DL-based methods could be unstable due to lack of kernel awareness. This paper addresses these issues by proposing an unrolling framework called Progressive Artifact Image Learning (PAIL) for limited data CT reconstruction. The proposed PAIL primarily consists of three key modules, i.e., a residual domain module (RDM), an image domain module (IDM), and a wavelet domain module (WDM). The RDM is designed to refine features from residual images and suppress the observable artifacts from the reconstructed images. This module could effectively alleviate the effects of distribution inconsistency among different data sets by transferring the optimization space from the original data domain to the residual data domain. The IDM is designed to suppress the unobservable artifacts in the image space. The RDM and IDM collaborate with each other during the iterative optimization process, progressively removing artifacts and reconstructing the underlying CT image. Furthermore, in order to void the potential hallucinations generated by the RDM and IDM, an additional WDM is incorporated into the network to enhance its stability. This is achieved by making the network become kernel-aware via integrating wavelet-based compressed sensing. The effectiveness of the proposed PAIL method has been consistently verified on two simulated CT data sets, a clinical cardiac data set and a sheep lung data set. Compared to other state-of-the-art methods, the proposed PAIL method achieves superior performance in various limited data CT reconstruction tasks, demonstrating its promising generalization and stability.
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基于渐进式伪影图像学习的可信有限数据CT重建
有限数据计算机断层扫描(CT)的重建旨在从稀疏视图或有限角度获得的投影视图的简化集中获得高质量的图像。这种方法用于减少辐射暴露或加快扫描过程。深度学习(DL)技术已被应用于有限数据CT重建任务中,并取得了显著的效果。然而,这些深度学习方法受到各种限制。首先,仿真数据与实际数据的分布不一致阻碍了这些基于dl的方法的推广。其次,由于缺乏内核感知,这些基于dl的方法可能不稳定。本文通过提出一个用于有限数据CT重建的渐进式伪像图像学习(PAIL)的展开框架来解决这些问题。该方法主要由残差域模块(RDM)、图像域模块(IDM)和小波域模块(WDM)三个关键模块组成。RDM旨在从残差图像中提取特征,并从重建图像中抑制可观察到的伪影。该模块通过将优化空间从原始数据域转移到残差数据域,有效缓解了不同数据集之间分布不一致的影响。IDM被设计用来抑制图像空间中不可观察的伪影。RDM和IDM在迭代优化过程中相互协作,逐步去除伪影并重建底层CT图像。此外,为了消除RDM和IDM产生的潜在幻觉,在网络中加入了一个额外的WDM以增强其稳定性。这是通过集成基于小波的压缩感知使网络成为核感知来实现的。本文提出的PAIL方法的有效性已经在两个模拟CT数据集、临床心脏数据集和羊肺数据集上得到了一致的验证。与其他最新方法相比,本文提出的PAIL方法在各种有限数据CT重建任务中取得了优异的性能,显示了其良好的泛化和稳定性。
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