Two Dimensional Grayscale Images of the Aspiny Neurons from the Human Neostriatum: Monofractal and Gray Level Co-occurrence Matrix Analysis

V. Vranes, Bojana Krstonosic, N. Milosevic
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引用次数: 1

Abstract

The striatum (neostriatum) is one of the principal constituents of the basal nuclei. It is a complex structure which consists of a dorsal and the ventral components. According to the spine distribution and their density, neurons of the human striatum can be classified into two main types: spiny and aspiny cells. Further classification recognizes two groups of spiny, and three groups of aspiny neurons. The goal of this study was to analyze different morphometric properties of the digital images of the group IV and group V aspiny neurons, from the dorsal striatum of both cerebral hemispheres. In this study, a total of 175 two-dimensional images of aspiny neurons were analyzed. Image reconstruction and measurement was performed with the specialized, public software Image J. Four parameters of standard fractal analysis were quantified from these binary images. In addition, five textural parameters were obtained by analyzing grayscale images of the entire neuron. Results of both analyses show that six of nine parameters differed between the group IV and group V aspiny neurons. Moreover, in both groups of neurons, one parameter of the fractal and three of the texture analyses differed between the putamen and the caudate nucleus neurons. Thus, this study corroborates previous classification of aspiny neurons. Although they belong to the same aspiny group, different type of cells can qualify nerve signals in their own way. Therefore, this study supports the hypothesis that neuronal morphology differences can reflect their functional diversity and their role in communication.
人类新纹状体中突起神经元的二维灰度图像:单分形和灰度共现矩阵分析
纹状体(新纹状体)是基底核的主要组成部分之一。它是一个复杂的结构,由背侧和腹侧组成。根据棘细胞的分布和密度,人类纹状体神经元可分为棘细胞和刺细胞两大类。进一步的分类识别出两组刺状神经元和三组刺状神经元。本研究的目的是分析来自两个大脑半球背纹状体的IV组和V组棘刺神经元的不同形态特征。本研究共分析了175张神经元的二维图像。利用专业的公共软件Image j进行图像重建和测量,并从这些二值化图像中量化出标准分形分析的四个参数。此外,通过分析整个神经元的灰度图像,得到了5个纹理参数。两种分析结果都表明,IV组和V组的神经元在9个参数中有6个存在差异。此外,在两组神经元中,壳核和尾状核神经元的分形分析有一个参数和三个参数存在差异。因此,本研究证实了先前对刺状神经元的分类。虽然它们属于同一个神经细胞群,但不同类型的细胞可以以自己的方式对神经信号进行鉴定。因此,本研究支持神经元形态差异可以反映其功能多样性及其在交流中的作用的假设。
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