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首页> 外文期刊>Journal of neurochemistry. >Does the inability of CA1 area to respond to ischemia with early rapid adenosine release contribute to hippocampal vulnerability? An Editorial Highlight for 'Spontaneous, transient adenosine release is not enhanced in the CA1 region of hippocampus during severe ischemia models'
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Does the inability of CA1 area to respond to ischemia with early rapid adenosine release contribute to hippocampal vulnerability? An Editorial Highlight for 'Spontaneous, transient adenosine release is not enhanced in the CA1 region of hippocampus during severe ischemia models'

机译:CA1 区域无法对早期快速腺苷释放的缺血做出反应是否会导致海马脆弱性?“在严重缺血模型期间,海马体 CA1 区域的自发、瞬时腺苷释放没有增强”的编辑亮点

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摘要

This Editorial highlights a remarkable study in the current issue of the Journal of Neurochemistry in which Ganesana Venton (2021) report new data showing that brain ischemia does not elicit transient adenosine release in the CA1 hippocampal area. Using fast-scan cyclic voltammetry at a carbon-fiber microelectrode implanted in the CA1 subfield of the hippocampus, it was shown that none of three different is-chemia/reperfusion models could increase spontaneous, transient adenosine release, and more severe models even suppressed this presumably neuroprotective release. Since the authors have previously shown that in the caudate putamen, ischemia increased the frequency of spontaneous adenosine release (Ganesana Venton, 2018), the new data may disclose a mechanism underlying important regional differences in rapid neuroprotective adenosine signaling. The phenomenon of selective susceptibility of the hippocampus to ischemia/hypoxia is well-documented, and the reported failure of its CA1 area to respond to ischemia by rapid adenosine release may be indicative of an insufficiency of this neuroprotective mechanism contributing to hippocampal vulnerability.
机译:这篇社论重点介绍了当前一期《神经化学杂志》上的一项非凡研究,其中 Ganesana & Venton (2021) 报告了新数据,表明脑缺血不会在 CA1 海马区引起瞬时腺苷释放。在植入海马体 CA1 亚场的碳纤维微电极上使用快速扫描循环伏安法,结果表明,三种不同的 is-chemia/再灌注模型中没有一个可以增加自发的瞬时腺苷释放,更严重的模型甚至抑制了这种可能的神经保护释放。由于作者之前已经表明,在尾状壳核中,缺血增加了自发腺苷释放的频率(Ganesana&Venton,2018),因此新数据可能揭示了快速神经保护性腺苷信号传导中重要区域差异的潜在机制。海马体对缺血/缺氧的选择性易感性现象有据可查,据报道,其 CA1 区域无法通过快速腺苷释放来响应缺血,这可能表明这种神经保护机制不足,导致海马脆弱性。

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