基于微间隙的局部脑冷却装置缓解癫痫发作热点的数值研究

G. Narendran, Amit Kumar, N. Gnanasekaran, D. Arumuga Perumal
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引用次数: 2

摘要

癫痫是一种常见的慢性神经系统疾病,其特征是异常过度和同步的脑细胞活动导致癫痫发作。为了大脑的正常功能,癫痫应该通过现有的治疗方法进行诊断,如药物治疗、劳拉西泮、苯二氮卓类药物摄入和手术。然而,由于现有的治疗方法,30-40%的人仍然会癫痫发作。因此,局灶性脑冷却装置(FBC)是一种新的替代冷却方法,通过冷却患处的脑组织来抑制非诱发性癫痫发作。在已有的基础模型上,通过添加三种不同结构的钛微针翅,对其冷却效果进行了数值研究。基于有限体积的fluent-15.0软件用于瞬态传热分析和流体动力学。数值计算结果表明,温度分布较为均匀,金刚石结构的微针鳍在7 min内即可达到15℃以下,这是减少高频高振幅癫痫放电的理想条件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Numerical Study on Microgap-Based Focal Brain Cooling Device to Mitigate Hotspot for the Treatment of Epileptic Seizure
Epilepsy is a common chronic neurological disorder characterized by abnormally excessive and synchronized brain cell activities causing seizures. For proper functioning of the brain, epilepsy should be diagnosed with existing treatments such as medication therapy, lorazepam, benzodiazepine drug intake, and surgery. However, 30–40% of people continue to have a seizure because of the available treatments. So, the focal brain cooling device (FBC) is a new alternative cooling method in which affected brain tissue is cooled to suppress unprovoked seizures. The present numerical study investigates the cooling effectiveness by adding three different structured titanium micro pin fins in the existing base model. A finite volume-based software fluent-15.0 is used to perform transient heat transfer analysis and flow hydrodynamics. The numerical results obtained show that the temperature distribution is found and more uniform and diamond-structured micro pin fin takes less than 7 min to reach below 15 °C, which is desirable to diminish the high-frequency and high-amplitude epileptic discharges.
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