Patch-walking, 一种用于有效寻找突触连接的协调多管贴片钳。

IF 6.4 1区 生物学 Q1 BIOLOGY
eLife Pub Date : 2024-11-18 DOI:10.7554/eLife.97399
Mighten C Yip, Mercedes M Gonzalez, Colby F Lewallen, Corey R Landry, Ilya Kolb, Bo Yang, William M Stoy, Ming-Fai Fong, Matthew J M Rowan, Edward S Boyden, Craig R Forest
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引用次数: 0

摘要

在测量活体脑组织中神经元之间的突触连接时,存在着巨大的技术挑战。贴片夹持技术用于探测突触连接时,需要人工操作,费时费力。为了提高效率,我们采用了另一种方法:在每次记录尝试后,我们不收回所有贴片夹电极,而是只清理其中一个电极,然后在保留其他电极的情况下重复使用它来获得另一次记录。通过一次新的膜片钳记录尝试,可以探测到许多新的连接。通过这种方式将一个移液管放在其他移液管前面,就可以在小鼠大脑切片上 "行走",即 "贴片行走"。我们用两个移液管进行了 136 次膜片钳尝试,成功记录了 71 个全细胞(52.2%)。其中,我们探测了 29 对连接(即 58 个双向探测连接),平均间距 91 μm,发现了三个连接。与传统的突触连接搜索方法相比,在 10-100 个细胞的实验中,贴片行走法探测到的连接要多出 80-92% 。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Patch-walking, a coordinated multi-pipette patch clamp for efficiently finding synaptic connections.

Significant technical challenges exist when measuring synaptic connections between neurons in living brain tissue. The patch clamping technique, when used to probe for synaptic connections, is manually laborious and time-consuming. To improve its efficiency, we pursued another approach: instead of retracting all patch clamping electrodes after each recording attempt, we cleaned just one of them and reused it to obtain another recording while maintaining the others. With one new patch clamp recording attempt, many new connections can be probed. By placing one pipette in front of the others in this way, one can 'walk' across the mouse brain slice, termed 'patch-walking.' We performed 136 patch clamp attempts for two pipettes, achieving 71 successful whole cell recordings (52.2%). Of these, we probed 29 pairs (i.e. 58 bidirectional probed connections) averaging 91 μm intersomatic distance, finding three connections. Patch-walking yields 80-92% more probed connections, for experiments with 10-100 cells than the traditional synaptic connection searching method.

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来源期刊
eLife
eLife BIOLOGY-
CiteScore
12.90
自引率
3.90%
发文量
3122
审稿时长
17 weeks
期刊介绍: eLife is a distinguished, not-for-profit, peer-reviewed open access scientific journal that specializes in the fields of biomedical and life sciences. eLife is known for its selective publication process, which includes a variety of article types such as: Research Articles: Detailed reports of original research findings. Short Reports: Concise presentations of significant findings that do not warrant a full-length research article. Tools and Resources: Descriptions of new tools, technologies, or resources that facilitate scientific research. Research Advances: Brief reports on significant scientific advancements that have immediate implications for the field. Scientific Correspondence: Short communications that comment on or provide additional information related to published articles. Review Articles: Comprehensive overviews of a specific topic or field within the life sciences.
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