了解布线和音量传输

Luigi F. Agnati , Diego Guidolin , Michele Guescini , Susanna Genedani , Kjell Fuxe
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引用次数: 250

摘要

1986年提出中枢神经系统(CNS)存在两种主要的细胞间通讯模式,分别称为布线传递(wiring transmission, WT)和体积传递(volume transmission, VT)。这种分类的主要标准是在WT(轴突及其突触)的情况下,通信通道的不同特征以及物理边界的明确界定;间隙连接),但室速(细胞外液充满细胞外空间的弯曲通道,脑脊液充满脑室空间和蛛网膜下腔)则不然。大脑中细胞间通讯的基本二分分类仍然被认为是有效的,但最近关于细胞间通讯存在未被怀疑的专门结构的证据,如微泡(外泌体和脱落囊泡)和隧道纳米管,要求对原始分类模型进行改进。提出的更新是基于标准,这些标准不仅是从这些新发现中推断出来的,而且是从信息学提供的概念中推断出来的,用于对中枢神经系统中的通信网络进行分类。这些标准还允许鉴定WT和VT的新亚类,即“隧道纳米管型WT”和“漫游型VT”。在这种新型VT中,微囊泡是安全的囊泡载体,用于靶向细胞间通讯的蛋白质,mtDNA和RNA在细胞外液中沿能量梯度流动以到达靶细胞。在隧道纳米管中,蛋白质、mtDNA和RNA以及整个细胞器(如线粒体)都可以迁移。尽管这些新型细胞间通讯在中枢神经系统中的存在和作用仍是一个有待研究和充分证明的问题,但本文讨论了这些新型WT和VT在健康和疾病中对脑功能的潜在重要性。
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Understanding wiring and volume transmission

The proposal on the existence of two main modes of intercellular communication in the central nervous system (CNS) was introduced in 1986 and called wiring transmission (WT) and volume transmission (VT). The major criterion for this classification was the different characteristics of the communication channel with physical boundaries well delimited in the case of WT (axons and their synapses; gap junctions) but not in the case of VT (the extracellular fluid filled tortuous channels of the extracellular space and the cerebrospinal fluid filled ventricular space and sub-arachnoidal space). The basic dichotomic classification of intercellular communication in the brain is still considered valid, but recent evidence on the existence of unsuspected specialized structures for intercellular communication, such as microvesicles (exosomes and shedding vesicles) and tunnelling nanotubes, calls for a refinement of the original classification model. The proposed updating is based on criteria which are deduced not only from these new findings but also from concepts offered by informatics to classify the communication networks in the CNS. These criteria allowed the identification also of new sub-classes of WT and VT, namely the “tunnelling nanotube type of WT” and the “Roamer type of VT.” In this novel type of VT microvesicles are safe vesicular carriers for targeted intercellular communication of proteins, mtDNA and RNA in the CNS flowing in the extracellular fluid along energy gradients to reach target cells. In the tunnelling nanotubes proteins, mtDNA and RNA can migrate as well as entire organelles such as mitochondria. Although the existence and the role of these new types of intercellular communication in the CNS are still a matter of investigation and remain to be fully demonstrated, the potential importance of these novel types of WT and VT for brain function in health and disease is discussed.

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Brain Research Reviews
Brain Research Reviews 医学-神经科学
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