A novel computational method for rodent electrographic recording and analysis using off-the-shelf intracerebral depth electrodes

IF 1.6 Q2 MULTIDISCIPLINARY SCIENCES MethodsX Pub Date : 2024-12-11 DOI:10.1016/j.mex.2024.103106
Cora Helton , Nicole Rodgers , Payton Klosa , Erik Van Newenhizen , Matt Hodges , Matt Jones , Kunal Gupta
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Abstract

Electrographic recording of brain activity through either surface electrodes (electroencephalography, EEG) or implanted electrodes (electrocorticography, ECOG) are valuable research tools in neuroscience across many disciplines, including epilepsy, sleep science and more. Research techniques to perform recordings in rodents are wide-ranging and often require custom parts that may not be readily available. Moreover, the information required to connect individual components is often limited and can therefore be challenging to implement. The quantity of data obtained can also be large and therefore difficult to analyze manually, and existing software detection tools are often task specific and require extensive coding experience to use. In this methods paper, we provide step-by-step instructions using off-the-shelf parts for electrographic recording in mice using intracerebral depth electrodes. We also provide a novel software-based detection tool that requires limited prior coding knowledge to use and with detection parameters that can be easily customized. The method is summarized as follows:
  • The electrode unit is assembled and implanted;
  • Recordings are obtained and analyzed using the novel software tool;
  • This method was validated using recordings taken during status epilepticus and chronic epilepsy in the intrahippocampal kainate mouse model of temporal lobe epilepsy

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一种利用现成的脑内深度电极进行啮齿动物电记录和分析的新型计算方法。
通过表面电极(脑电图,EEG)或植入电极(皮质电图,ECOG)对大脑活动进行电记录是神经科学中许多学科的宝贵研究工具,包括癫痫、睡眠科学等。在啮齿动物中进行录音的研究技术范围广泛,通常需要定制的部件,这些部件可能不容易获得。此外,连接各个组件所需的信息通常是有限的,因此很难实现。获得的数据量也可能很大,因此很难手工分析,并且现有的软件检测工具通常是特定于任务的,需要大量的编码经验才能使用。在这篇方法论文中,我们提供了一步一步的说明,使用现成的部件在小鼠脑内深度电极上进行电记录。我们还提供了一种新颖的基于软件的检测工具,该工具需要有限的先前编码知识才能使用,并且可以轻松定制检测参数。该方法总结如下:•组装并植入电极单元;•使用新型软件工具获得记录并进行分析;•在颞叶癫痫小鼠海马内海碱盐模型中,使用癫痫持续状态和慢性癫痫期间的记录验证了该方法。
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来源期刊
MethodsX
MethodsX Health Professions-Medical Laboratory Technology
CiteScore
3.60
自引率
5.30%
发文量
314
审稿时长
7 weeks
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