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      Unsupervised Cerebrovascular Segmentation of TOF-MRA Images Based on Deep Neural Network and Hidden Markov Random Field Model

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          Abstract

          Automated cerebrovascular segmentation of time-of-flight magnetic resonance angiography (TOF-MRA) images is an important technique, which can be used to diagnose abnormalities in the cerebrovascular system, such as vascular stenosis and malformation. Automated cerebrovascular segmentation can direct show the shape, direction and distribution of blood vessels. Although deep neural network (DNN)-based cerebrovascular segmentation methods have shown to yield outstanding performance, they are limited by their dependence on huge training dataset. In this paper, we propose an unsupervised cerebrovascular segmentation method of TOF-MRA images based on DNN and hidden Markov random field (HMRF) model. Our DNN-based cerebrovascular segmentation model is trained by the labeling of HMRF rather than manual annotations. The proposed method was trained and tested using 100 TOF-MRA images. The results were evaluated using the dice similarity coefficient (DSC), which reached a value of 0.79. The trained model achieved better performance than that of the traditional HMRF-based cerebrovascular segmentation method in binary pixel-classification. This paper combines the advantages of both DNN and HMRF to train the model with a not so large amount of the annotations in deep learning, which leads to a more effective cerebrovascular segmentation method.

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          Most cited references21

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          3D U-Net: Learning Dense Volumetric Segmentation from Sparse Annotation

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            Initialization, noise, singularities, and scale in height ridge traversal for tubular object centerline extraction.

            The extraction of the centerlines of tubular objects in two and three-dimensional images is a part of many clinical image analysis tasks. One common approach to tubular object centerline extraction is based on intensity ridge traversal. In this paper, we evaluate the effects of initialization, noise, and singularities on intensity ridge traversal and present multiscale heuristics and optimal-scale measures that minimize these effects. Monte Carlo experiments using simulated and clinical data are used to quantify how these "dynamic-scale" enhancements address clinical needs regarding speed, accuracy, and automation. In particular, we show that dynamic-scale ridge traversal is insensitive to its initial parameter settings, operates with little additional computational overhead, tracks centerlines with subvoxel accuracy, passes branch points, and handles significant image noise. We also illustrate the capabilities of the method for medical applications involving a variety of tubular structures in clinical data from different organs, patients, and imaging modalities.
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              Multiplicative intrinsic component optimization (MICO) for MRI bias field estimation and tissue segmentation.

              This paper proposes a new energy minimization method called multiplicative intrinsic component optimization (MICO) for joint bias field estimation and segmentation of magnetic resonance (MR) images. The proposed method takes full advantage of the decomposition of MR images into two multiplicative components, namely, the true image that characterizes a physical property of the tissues and the bias field that accounts for the intensity inhomogeneity, and their respective spatial properties. Bias field estimation and tissue segmentation are simultaneously achieved by an energy minimization process aimed to optimize the estimates of the two multiplicative components of an MR image. The bias field is iteratively optimized by using efficient matrix computations, which are verified to be numerically stable by matrix analysis. More importantly, the energy in our formulation is convex in each of its variables, which leads to the robustness of the proposed energy minimization algorithm. The MICO formulation can be naturally extended to 3D/4D tissue segmentation with spatial/sptatiotemporal regularization. Quantitative evaluations and comparisons with some popular softwares have demonstrated superior performance of MICO in terms of robustness and accuracy.
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                Author and article information

                Contributors
                Journal
                Front Neuroinform
                Front Neuroinform
                Front. Neuroinform.
                Frontiers in Neuroinformatics
                Frontiers Media S.A.
                1662-5196
                10 January 2020
                2019
                : 13
                : 77
                Affiliations
                [1] 1School of Sino-Dutch Biomedical and Information Engineering, Northeastern University , Shenyang, China
                [2] 2Neusoft Research of Intelligent Healthcare Technology, Co. Ltd. , Shenyang, China
                [3] 3Engineering Research Center for Medical Imaging and Intelligent Analysis, National Education Ministry , Shenyang, China
                [4] 4Department of Biomechanical Engineering, University of Twente , Twente, Netherlands
                [5] 5Department of Radiology, Xuanwu Hospital, Capital Medical University , Beijing, China
                [6] 6Department of Biomedical Engineering, Eindhoven University of Technology , Eindhoven, Netherlands
                Author notes

                Edited by: Tianyi Yan, Beijing Institute of Technology, China

                Reviewed by: Renzo Phellan, University of Calgary, Canada; Nagesh Koundinya Subbanna, University of Calgary, Canada

                *Correspondence: Shengyu Fan, fanshengyu1987@ 123456gmail.com
                Article
                10.3389/fninf.2019.00077
                6965699
                31998107
                2293c6a7-149f-46d2-a5e3-c81785cf81f5
                Copyright © 2020 Fan, Bian, Chen, Kang, Yang and Tan.

                This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.

                History
                : 31 January 2019
                : 06 December 2019
                Page count
                Figures: 7, Tables: 3, Equations: 22, References: 31, Pages: 10, Words: 0
                Categories
                Neuroscience
                Original Research

                Neurosciences
                deep neural network,hidden markov random field model,cerebrovascular segmentation,magnetic resonance angiography,unsupervised learning

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