评估大脑神经可塑性:对 Quadrato 运动训练引起的皮层变化进行表面形态计量分析。

IF 1.8 3区 医学 Q2 ANATOMY & MORPHOLOGY
F Spani, F Carducci, C Piervincenzi, T D Ben-Soussan, C A Mallio, C C Quattrocchi
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引用次数: 0

摘要

目前仍然缺乏大脑可塑性的形态学标记,而且大脑皮质表面的极端可变性也对其研究结果提出了挑战。为了克服 "对应问题",我们采用了一种无地标方法(广义普罗斯表面分析法(GPSA))来研究一组 40 名健康志愿者(即练习组)的大脑皮层表面形状变化,他们每天都要接受运动训练,即四肢运动训练(QMT)。QMT 是一种感知运动步行冥想,旨在平衡身体、认知和情感。更具体地说,QMT 需要协调和注意力,包括在 50 × 50 平方厘米的角上向三个可能方向之一移动。我们对练习组(在基线以及练习 QMT 6 周和 12 周后获得)的脑磁共振成像(MRI)进行了三维重建,并将其与另外六名从未练习过 QMT 的志愿者(天真组)的脑磁共振成像进行了比较。受形态变异影响最大的皮质区域在三维平均彩色比例脑表面上可视化,变异程度由高(红)到低(蓝)。对大多数形态变化感兴趣的皮层区域如下:(1)辅助运动皮层;(2)额叶下回(厣旁)和岛叶前部;(3)视觉皮层;(4)顶叶下部(边上回和角回)。我们的研究结果表明,表面形态计量分析(即 GPSA)可用于评估大脑神经可塑性过程,例如受 QMT 刺激的过程。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Assessing brain neuroplasticity: Surface morphometric analysis of cortical changes induced by Quadrato motor training.

Morphological markers for brain plasticity are still lacking and their findings are challenged by the extreme variability of cortical brain surface. Trying to overcome the "correspondence problem," we applied a landmark-free method (the generalized procrustes surface analysis (GPSA)) for investigating the shape variation of cortical surface in a group of 40 healthy volunteers (i.e., the practice group) subjected to daily motor training known as Quadrato motor training (QMT). QMT is a sensorimotor walking meditation that aims at balancing body, cognition, and emotion. More specifically, QMT requires coordination and attention and consists of moving in one of three possible directions on corners of a 50 × 50 cm2. Brain magnetic resonance images (MRIs) of practice group (acquired at baseline, as well as after 6 and 12 weeks of QMT), were 3D reconstructed and here compared with brain MRIs of six more volunteers never practicing the QMT (naïve group). Cortical regions mostly affected by morphological variations were visualized on a 3D average color-scaled brain surface indicating from higher (red) to lower (blue) levels of variation. Cortical regions interested in most of the shape variations were as follows: (1) the supplementary motor cortex; (2) the inferior frontal gyrus (pars opercolaris) and the anterior insula; (3) the visual cortex; (4) the inferior parietal lobule (supramarginal gyrus and angular gyrus). Our results show that surface morphometric analysis (i.e., GPSA) can be applied to assess brain neuroplasticity processes, such as those stimulated by QMT.

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来源期刊
Journal of Anatomy
Journal of Anatomy 医学-解剖学与形态学
CiteScore
4.80
自引率
8.30%
发文量
183
审稿时长
4-8 weeks
期刊介绍: Journal of Anatomy is an international peer-reviewed journal sponsored by the Anatomical Society. The journal publishes original papers, invited review articles and book reviews. Its main focus is to understand anatomy through an analysis of structure, function, development and evolution. Priority will be given to studies of that clearly articulate their relevance to the anatomical community. Focal areas include: experimental studies, contributions based on molecular and cell biology and on the application of modern imaging techniques and papers with novel methods or synthetic perspective on an anatomical system. Studies that are essentially descriptive anatomy are appropriate only if they communicate clearly a broader functional or evolutionary significance. You must clearly state the broader implications of your work in the abstract. We particularly welcome submissions in the following areas: Cell biology and tissue architecture Comparative functional morphology Developmental biology Evolutionary developmental biology Evolutionary morphology Functional human anatomy Integrative vertebrate paleontology Methodological innovations in anatomical research Musculoskeletal system Neuroanatomy and neurodegeneration Significant advances in anatomical education.
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