Ji Young Lee, Dongyoun Kim, J. Mun, Seok-Jae Kang, Seong‐Ho Son, Sung Y. Shin
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引用次数: 0
摘要
人脑核磁共振图像的分割是计算机辅助医学图像处理研究的重要组成部分。模糊c均值(FCM)算法是一种实用的脑MRI分割算法。然而,脑MRI的强度不均匀性(INU)问题仍然是现有FCM面临的挑战。本文提出了一种基于三正交平面上局部二值模式的纹理加权FCM (TFCM)算法。通过加入纹理约束,TFCM可以考虑到更多的全局图像信息。该算法分为以下几个阶段:预处理阶段通过三维颅骨剥离提取感兴趣体积(Volume of Interest, VOI);进行初始FCM聚类和LBP-TOP特征提取,提取并分类每个聚类的特征。最后,结合纹理约束的FCM对初始FCM的结果进行了细化。将该算法应用于对Dice系数和Tanimoto系数与地面真值的分割结果进行性能评价。结果表明,该算法比现有的脑MRI FCM模型具有更好的分割精度。
Texture weighted fuzzy C-means algorithm for 3D brain MRI segmentation
The segmentation of human brain Magnetic Resonance Image (MRI) is an essential component in the computer-aided medical image processing research. Fuzzy C-Means (FCM) algorithm is one of the practical algorithms for brain MRI segmentation. However, Intensity Non-Uniformity (INU) problem in brain MRI is still challenging to existing FCM. In this paper, we propose the Texture weighted FCM (TFCM) algorithm performed with Local Binary Patterns on Three Orthogonal Planes (LBP-TOP). By incorporating texture constraints, TFCM could take into account more global image information. The proposed algorithm is divided into following stages: Volume of Interest (VOI) is extracted by 3D skull stripping in the pre-processing stage. The initial FCM clustering and LBP-TOP feature extraction are performed to extract and classify each cluster's features. At the last stage, FCM with texture constraints refines the result of initial FCM. The proposed algorithm has been implemented to evaluate the performance of segmentation result with Dice's coefficient and Tanimoto coefficient compared with the ground truth. The results show that the proposed algorithm has the better segmentation accuracy than existing FCM models for brain MRI.