Strategies on Deep Brain Stimulation Devices for Effective Behavioral Studies in Rodents

F. Plocksties, A. Lüttig, Christoph Niemann, Felix Uster, D. Franz, Maria Kober, Maximilian Koschay, S. Perl, A. Richter, R. Köhling, Alexander Storch, D. Timmermann
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Abstract

Deep brain stimulation (DBS) is an essential therapeutic resource for treating movement disorders like dystonia. In order to gain further insight into the underlying disease mechanisms, animal models are used. However, the most critical obstacle for further research is the lack of subcutaneous implantable, miniaturized neurostimulators that can deliver reliable and replicable results. Extracorporeal mounting of neurostimulators on the head or back places a high burden on the animal. Furthermore, the animals frequently tamper with these stimulation setups, leading to high failure rates. In the absence of suitable diagnostic tests, such defects generally escape detection. Therefore, this article presents strategies for a DBS stimulator design intending to increase the scientific merit of behavioral experiments in rodents. In this context, we demonstrate an easy-to-implement, waterproof, biocompatible, and compact encapsulation method suited for full implantation in small rodents. Using this method, we implanted DBS devices subcutaneously in dystonic hamsters that have been successfully tested for up to 17 days.
用于啮齿类动物有效行为研究的深部脑刺激装置策略
脑深部电刺激(DBS)是治疗肌张力障碍等运动障碍的重要治疗手段。为了进一步了解潜在的疾病机制,使用了动物模型。然而,进一步研究的最关键障碍是缺乏能够提供可靠和可复制结果的皮下植入式小型化神经刺激器。在头部或背部安装体外神经刺激器会给动物带来沉重的负担。此外,动物经常篡改这些刺激设置,导致高失败率。在没有合适的诊断测试的情况下,这些缺陷通常无法被检测到。因此,本文提出了一种DBS刺激器的设计策略,旨在提高啮齿动物行为实验的科学价值。在这种情况下,我们展示了一种易于实施,防水,生物相容性和紧凑的封装方法,适用于小型啮齿动物的完全植入。使用这种方法,我们将DBS装置植入肌张力障碍仓鼠皮下,这些仓鼠已经成功地进行了长达17天的测试。
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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