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首页> 外文期刊>Biochemical and Biophysical Research Communications >Detection of tetanus-induced effects in linearly lined-up micropatterned neuronal networks: application of a multi-electrode array chip combined with agarose microstructures.
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Detection of tetanus-induced effects in linearly lined-up micropatterned neuronal networks: application of a multi-electrode array chip combined with agarose microstructures.

机译:在线性排列的微模式神经网络中检测破伤风诱发的效应:结合琼脂糖微结构的多电极阵列芯片的应用。

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摘要

One of the best approaches to understanding the mechanism of information acquisition and storage is to characterize the plasticity of network activity by monitoring and stimulating individual neurons in a topologically defined network and doing this for extended periods of time. We therefore previously developed an on-chip multi-electrode array (MEA) system combined with an array of agarose microchambers (AMCs). It is possible to record the firing at multiple cells simultaneously for long term and topographically control the cells position and their connections. In our present study, we demonstrated the effect of tetanic stimulation in a linearly lined-up patterned network on the AMC/MEA chip. We detected reproducible activity changes that were induced by tetanic stimulation and saw that these changes were maintained for 6-24 h. The results show the advantage of our AMC/MEA cultivation and measurements methods and suggest they will be useful for investigating the long-term plasticity depending on network topology and size.
机译:理解信息获取和存储机制的最佳方法之一是通过监视和刺激拓扑定义的网络中的单个神经元,并在很长一段时间内执行此操作,来表征网络活动的可塑性。因此,我们先前开发了与琼脂糖微腔(AMC)阵列相结合的片上多电极阵列(MEA)系统。可以同时长期记录多个单元的发射,并通过地形控制单元的位置及其连接。在我们目前的研究中,我们证明了强直性刺激在AMC / MEA芯片上线性排列的图案化网络中的作用。我们检测到由强直性刺激诱导的可复制的活性变化,并观察到这些变化可维持6-24小时。结果显示了我们的AMC / MEA培养和测量方法的优势,并表明它们将有助于根据网络拓扑和规模调查长期可塑性。

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