Wang Mengqing, Fan Jiale, Shao Zhiyong
State Key Laboratory of Medical Neurobiology and MOE Frontiers Center for Brain Science, Institutes of Brain Science, Department of Neurosurgery, Zhongshan Hospital, Fudan University, 131 Dong An Rd, Research Building B4017, Shanghai 200032, China.
Brain Sci. 2024 Feb 2;14(2):155. doi: 10.3390/brainsci14020155.
Chemical synapses are essential for neuronal information storage and relay. The synaptic signal received or sent from spatially distinct subcellular compartments often generates different outcomes due to the distance or physical property difference. Therefore, the final output of postsynaptic neurons is determined not only by the type and intensity of synaptic inputs but also by the synaptic subcellular location. How synaptic subcellular specificity is determined has long been the focus of study in the neurodevelopment field. Genetic studies from invertebrates such as () have uncovered important molecular and cellular mechanisms required for subcellular specificity. Interestingly, similar molecular mechanisms were found in the mammalian cerebellum, hippocampus, and cerebral cortex. This review summarizes the comprehensive advances in the cellular and molecular mechanisms underlying synaptic subcellular specificity, focusing on studies from and rodents.
化学突触对于神经元信息的存储和传递至关重要。从空间上不同的亚细胞区室接收或发送的突触信号,由于距离或物理性质的差异,常常会产生不同的结果。因此,突触后神经元的最终输出不仅取决于突触输入的类型和强度,还取决于突触的亚细胞定位。突触亚细胞特异性是如何确定的,长期以来一直是神经发育领域的研究重点。来自诸如()等无脊椎动物的遗传学研究揭示了亚细胞特异性所需的重要分子和细胞机制。有趣的是,在哺乳动物的小脑、海马体和大脑皮层中也发现了类似的分子机制。本综述总结了突触亚细胞特异性背后的细胞和分子机制的全面进展,重点关注来自(此处原文缺失具体内容)和啮齿动物的研究。