Concept for intrathecal delivery of brain recording and stimulation device

IF 2.7 Q3 ENGINEERING, BIOMEDICAL
Daniel P. Chapman, Jian-Young Wu
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Abstract

Neurological disorders are common, yet many neurological diseases don't have efficacious treatments. The protected nature of the brain both anatomically and physiologically through the blood brain barrier (BBB) make it exceptionally hard to access. Recent advancements in interventional approaches, like the Stentrode™, have opened the possibility of using the cerebral vasculature as a highway for minimally invasive therapeutic delivery to the brain. Despite the immense success that the Stentrode™ has faced recently, it is limited to major cerebral vasculature and exists outside the BBB, making drug eluting configurations largely ineffective. The present study seeks to identify a separate anatomical pathway for therapeutic delivery to the deep brain using the ventricular system. The intrathecal route, in which drug pumps and spinal cord stimulators are delivered through a lumbar puncture, is a well-established route for delivering therapies to the spinal cord as high as C1. The present study identifies an extension of this anatomical pathway through the foramen of Magendie and into the brains ventricular system. To test this pathway, a narrow self-expanding electrical recording device was manufactured and its potential to navigate the ventricular system was assessed on human anatomical brain samples. While the results of this paper are largely preliminary and a substantial amount of safety and efficacy data is needed, this paper identifies an important anatomical pathway for delivery of therapeutic and diagnostics tools to the brain that is minimally invasive, can access limbic structures, and is within the BBB.
鞘内输送脑记录和刺激装置的概念
神经系统疾病很常见,但许多神经系统疾病却没有有效的治疗方法。大脑在解剖学和生理学上都受到血脑屏障(BBB)的保护,因此很难进入大脑。介入疗法的最新进展(如 Stentrode™)为将脑血管作为微创疗法输送到大脑的高速公路提供了可能。尽管 Stentrode™ 近来取得了巨大成功,但它仅限于主要脑血管,存在于 BBB 之外,因此药物洗脱配置在很大程度上无效。本研究试图找出一条利用脑室系统向大脑深部输送治疗药物的独立解剖学途径。鞘内途径是通过腰椎穿刺将药物泵和脊髓刺激器输送到C1以上的脊髓,是一种行之有效的治疗途径。本研究确定了这一解剖路径的延伸,即通过马氏孔进入脑室系统。为了测试这条通路,我们制造了一个狭窄的自膨胀电记录装置,并在人体大脑解剖样本上评估了该装置在脑室系统中的导航潜力。虽然本文的研究结果在很大程度上是初步的,还需要大量的安全性和有效性数据,但本文为向大脑输送治疗和诊断工具确定了一个重要的解剖学途径,该途径具有微创性,可以进入边缘结构,并且位于 BBB 内。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
3.70
自引率
0.00%
发文量
0
审稿时长
13 weeks
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