Targeted Patching and Dendritic Ca2+ Imaging in Nonhuman Primate Brain in vivo

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作者
Ran Ding
Xiang Liao
Jingcheng Li
Jianxiong Zhang
Meng Wang
Yu Guang
Han Qin
Xingyi Li
Kuan Zhang
Shanshan Liang
Jiangheng Guan
Jia Lou
Hongbo Jia
Bingbo Chen
Hui Shen
Xiaowei Chen
机构
[1] Tianjin Medical University,School of Biomedical Engineering
[2] Third Military Medical University,Brain Research Center
[3] Suzhou Institute of Biomedical Engineering and Technology,Brain Research Instrument Innovation Center
[4] Chinese Academy of Sciences,Laboratory Animal Center
[5] Third Military Medical University,CAS Center for Excellence in Brain Science and Intelligence Technology
[6] Shanghai Institutes for Biological Sciences,undefined
[7] Chinese Academy of Sciences,undefined
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摘要
Nonhuman primates provide an important model not only for understanding human brain but also for translational research in neurological and psychiatric disorders. However, many high-resolution techniques for recording neural activity in vivo that were initially established for rodents have not been yet applied to the nonhuman primate brain. Here, we introduce a combination of two-photon targeted patching and dendritic Ca2+ imaging to the neocortex of adult common marmoset, an invaluable primate model for neuroscience research. Using targeted patching, we show both spontaneous and sensory-evoked intracellular dynamics of visually identified neurons in the marmoset cortex. Using two-photon Ca2+ imaging and intracellular pharmacological manipulation, we report both action-potential-associated global and synaptically-evoked NMDA (N-methyl-D-aspartate) receptor-mediated local Ca2+ signals in dendrites and spines of the superficial-layer cortical neurons. Therefore, we demonstrate the presence of synaptic Ca2+ signals in neuronal dendrites in living nonhuman primates. This work represents a proof-of-principle for exploring the primate brain functions in vivo by monitoring neural activity and morphology at a subcellular resolution.
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