多层颅骨建模及其在tDCS仿真中的重要性

Weiqian Sun, Heng Wang, Jianxu Zhang, Tianyi Yan, Guangying Pei
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引用次数: 4

摘要

经颅直流电刺激(tDCS)是一种流行的无创脑活动调节方法,也是神经精神疾病的潜在治疗方法。目前,有限元水头模型已被广泛应用于tDCS的研究。然而,典型的头部模型忽略了一些脑外组织,这可能对模拟tDCS的效果有很大的影响。本研究建立了包括海绵骨在内的详细头部模型,计算tDCS的皮质电场。从MR图像中提取海绵骨,建立6层头部模型。在测量颅骨和海绵骨厚度后,模拟并比较了精细模型和典型模型上的皮层电场分布。结果表明,两种模型中电场的分布和振幅不同,特别是电场的分布。六层模型将得到更大范围的刺激。根据模拟结果和真实的生理结构,我们认为区分颅骨致密骨和海绵骨对于准确模拟tDCS非常重要。
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Multi-layer skull modeling and importance for tDCS simulation
Transcranial direct current stimulation (tDCS) is a popular method for non-invasive modulation of brain activity and a potential treatment for neuropsychiatric disorders. Currently the finite element head model has widely used to study tDCS. However, the typical head model ignored some extra-brain tissues, which may have a large influence on simulating the effect of tDCS. This study established a detailed head model including spongy bone to calculate the cortical electric field in tDCS. The spongy bone was extracted from the MR images and then a 6-layer head model was established. After the thickness of the skull and spongy bone was measured, the cortical electric field distributions on the detailed model and the typical model were simulated and compared. The result showed that the distribution and amplitude of electric field were different in two models, especially the distribution. The six-layer model will get a larger range of stimulus. Based on the simulation results and the real physiological structure, we conclude that it is very important to distinguish the skull into the compact bone and spongy bone for the accurate simulation of tDCS.
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