Arbor vitae cerebelli: Fractal properties and their quantitative assessment by novel “contour scaling” fractal analysis method (an anatomical study)

Q3 Medicine
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Abstract

Background

Arbor vitae cerebelli (tree-like branching white matter of the cerebellum) has a complex spatial configuration that is challenging to assess using conventional morphometric methods. This study proposes a fractal approach to describe and quantify the anatomy of Arbor vitae cerebelli. For this purpose, a new “contour scaling” method for fractal analysis of cerebellar white matter was developed.

Material and methods

The cerebella of 100 cadavers (50 male and 50 female) who died from causes unrelated to brain pathology, aged 20–95 years, were examined. Mid-sagittal sections of the cerebellar vermis were studied. The fractal dimension values of the cerebellar white matter were determined using both the developed fractal analysis method and the conventional “box counting” method, along with measurements of non-fractal parameters including cerebellar weight, area and perimeter of the vermis cross-section, perimeter-to-area ratio, and circularity.

Results

Considering the cerebellar white matter as a tree-like fractal, it was found to have 7 or 8 primary branches, which subdivide into 10-18 second-iteration branches, 19–38 third-iteration branches, and 34–53 fourth-iteration branches. Females more often had 8 primary branches compared to males, while males had a greater number of branches in the second to fourth iterations. The mean fractal (Hausdorff) dimension was 1.697 (1.721 in males, 1.674 in females, P = 0.01). The fractal dimension correlated most strongly with the perimeter and area of the vermis cross-section and had no significant relationship with age.

Conclusion

The fractal (Hausdorff) dimension, determined using the novel “contour scaling” method, quantitatively assesses the degree of branching of the cerebellar white matter. An increase in the absolute size of the cerebellum leads to a higher degree of branching of its white matter and an increase in the number of its constitutive components – white matter branches and folia.

脑动脉:分形特性及其通过新型 "轮廓缩放 "分形分析方法进行的定量评估(解剖学研究)
背景小脑树突(小脑树状分支白质)具有复杂的空间构型,使用传统的形态计量学方法对其进行评估具有挑战性。本研究提出了一种分形方法来描述和量化小脑脑白质的解剖结构。材料和方法研究了 100 具尸体(50 男 50 女)的小脑,这些尸体死于与脑部病变无关的原因,年龄在 20-95 岁之间。对小脑蚓部的中矢状切片进行了研究。使用开发的分形分析方法和传统的 "盒计数 "方法确定了小脑白质的分形维度值,同时还测量了非分形参数,包括小脑重量、蚓部横截面的面积和周长、周长与面积之比以及圆度。结果将小脑白质视为树状分形,发现它有 7 或 8 个一级分支,再细分为 10-18 个二级分支、19-38 个三级分支和 34-53 个四级分支。与雄性相比,雌性多有 8 个主分支,而雄性在第二至第四次迭代中有更多分支。平均分形(豪斯多夫)维度为 1.697(雄性为 1.721,雌性为 1.674,P = 0.01)。分形维度与蚓部横截面的周长和面积的相关性最强,与年龄无显著关系。小脑绝对大小的增加会导致其白质分枝程度的增加及其构成成分--白质分支和叶片--数量的增加。
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来源期刊
CiteScore
2.90
自引率
0.00%
发文量
71
审稿时长
25 days
期刊介绍: Translational Research in Anatomy is an international peer-reviewed and open access journal that publishes high-quality original papers. Focusing on translational research, the journal aims to disseminate the knowledge that is gained in the basic science of anatomy and to apply it to the diagnosis and treatment of human pathology in order to improve individual patient well-being. Topics published in Translational Research in Anatomy include anatomy in all of its aspects, especially those that have application to other scientific disciplines including the health sciences: • gross anatomy • neuroanatomy • histology • immunohistochemistry • comparative anatomy • embryology • molecular biology • microscopic anatomy • forensics • imaging/radiology • medical education Priority will be given to studies that clearly articulate their relevance to the broader aspects of anatomy and how they can impact patient care.Strengthening the ties between morphological research and medicine will foster collaboration between anatomists and physicians. Therefore, Translational Research in Anatomy will serve as a platform for communication and understanding between the disciplines of anatomy and medicine and will aid in the dissemination of anatomical research. The journal accepts the following article types: 1. Review articles 2. Original research papers 3. New state-of-the-art methods of research in the field of anatomy including imaging, dissection methods, medical devices and quantitation 4. Education papers (teaching technologies/methods in medical education in anatomy) 5. Commentaries 6. Letters to the Editor 7. Selected conference papers 8. Case Reports
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