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基于高斯混合模型和模糊 C 均值方法的胼胝体自动分割。

Automatic segmentation of corpus callosum using Gaussian mixture modeling and Fuzzy C means methods.

机构信息

Erciyes University, Engineering Faculty, Biomedical Engineering Department, Kayseri, Turkey.

出版信息

Comput Methods Programs Biomed. 2013 Oct;112(1):38-46. doi: 10.1016/j.cmpb.2013.06.006. Epub 2013 Jul 17.

DOI:10.1016/j.cmpb.2013.06.006
PMID:23871683
Abstract

This paper presents a comparative study of the success and performance of the Gaussian mixture modeling and Fuzzy C means methods to determine the volume and cross-sectionals areas of the corpus callosum (CC) using simulated and real MR brain images. The Gaussian mixture model (GMM) utilizes weighted sum of Gaussian distributions by applying statistical decision procedures to define image classes. In the Fuzzy C means (FCM), the image classes are represented by certain membership function according to fuzziness information expressing the distance from the cluster centers. In this study, automatic segmentation for midsagittal section of the CC was achieved from simulated and real brain images. The volume of CC was obtained using sagittal sections areas. To compare the success of the methods, segmentation accuracy, Jaccard similarity and time consuming for segmentation were calculated. The results show that the GMM method resulted by a small margin in more accurate segmentation (midsagittal section segmentation accuracy 98.3% and 97.01% for GMM and FCM); however the FCM method resulted in faster segmentation than GMM. With this study, an accurate and automatic segmentation system that allows opportunity for quantitative comparison to doctors in the planning of treatment and the diagnosis of diseases affecting the size of the CC was developed. This study can be adapted to perform segmentation on other regions of the brain, thus, it can be operated as practical use in the clinic.

摘要

本文对高斯混合模型和模糊 C 均值方法在模拟和真实磁共振脑图像中确定胼胝体(CC)体积和横截面积的效果和性能进行了比较研究。高斯混合模型(GMM)通过应用统计决策过程来定义图像类,利用高斯分布的加权和。在模糊 C 均值(FCM)中,根据表示与聚类中心距离的模糊信息,图像类由特定的隶属函数表示。在这项研究中,从模拟和真实的脑图像中实现了 CC 的正中矢状面的自动分割。通过矢状面区域获得 CC 的体积。为了比较方法的成功,计算了分割的准确性、Jaccard 相似性和分割的耗时。结果表明,GMM 方法的分割更准确(GMM 和 FCM 的正中矢状面分割准确性分别为 98.3%和 97.01%);然而,FCM 方法的分割速度比 GMM 方法快。通过这项研究,开发了一种准确且自动的分割系统,为医生在治疗计划和诊断影响 CC 大小的疾病方面提供了定量比较的机会。本研究可以适应对大脑其他区域进行分割,因此可以在临床实践中实际应用。

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