Decoding ECoG High Gamma Power from Cellular Calcium Response using Transparent Graphene Microelectrodes

Xin Liu, Chi Ren, Yichen Lu, Ryoma Hattori, Yuhan Shi, Ruoyu Zhao, David Ding, T. Komiyama, D. Kuzum
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引用次数: 3

Abstract

The ECoG has been widely used in human brain research, while 2-photon microscopy has been broadly applied to basic neuroscience studies using animal models. Bridging the gap between the 2-photon microscopy and the ECoG is critical for transferring the vast amount of neuroscience knowledge obtained from animal models to human brain studies. Here we develop an LSTM recurrent neural network model to decode the ECoG high gamma power from the cellular calcium activities obtained by multimodal ECoG recordings and 2-photon calcium imaging enabled by transparent graphene microelectrode arrays. In both awake and anesthetized states, our model can successfully decode the stimulus-induced ECoG high gamma power increases and its spontaneous fluctuations in the absence of stimulus.
使用透明石墨烯微电极解码细胞钙响应的ECoG高伽马功率
ECoG已广泛应用于人脑研究,而双光子显微镜已广泛应用于动物模型的基础神经科学研究。弥合双光子显微镜和ECoG之间的差距对于将从动物模型获得的大量神经科学知识转移到人类大脑研究至关重要。在这里,我们开发了一个LSTM递归神经网络模型,通过透明石墨烯微电极阵列实现的多模态ECoG记录和双光子钙成像获得的细胞钙活动来解码ECoG高伽马功率。在清醒和麻醉状态下,我们的模型都可以成功地解码刺激诱导的脑电图高伽马功率增加及其在没有刺激的情况下的自发波动。
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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