Understanding wiring and volume transmission

被引:205
作者
Agnati, Luigi F. [1 ]
Guidolin, Diego [2 ]
Guescini, Michele [3 ]
Genedani, Susanna [1 ]
Fuxe, Kjell [4 ]
机构
[1] Univ Modena & Reggio Emilia, Dept Biomed Sci, IRCCS San Camillo Venezia, I-41100 Modena, Italy
[2] Univ Padua, Dept Human Anat & Physiol, I-35122 Padua, Italy
[3] Univ Urbino Carlo B, Dept Biomol Sci, I-61029 Urbino, Italy
[4] Karolinska Inst, Dept Neurosci, Div Cellular & Mol Neurochem, S-17177 Stockholm, Sweden
关键词
Wiring transmission; Volume transmission; Tunnelling nanotube; Roamer type of VT; Microvescicle; Communication network; Central nervous system; RECEPTOR-RECEPTOR INTERACTIONS; CENTRAL-NERVOUS-SYSTEM; IMMUNOREACTIVE NEURONAL PROCESSES; PROLACTIN-LIKE IMMUNOREACTIVITY; GAP-JUNCTIONS; EXTRACELLULAR-SPACE; MEMBRANE NANOTUBES; INTERCELLULAR COMMUNICATION; CELLULAR-LOCALIZATION; TUNNELING NANOTUBES;
D O I
10.1016/j.brainresrev.2010.03.003
中图分类号
Q189 [神经科学];
学科分类号
071006 ;
摘要
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. (C) 2010 Elsevier B.V. All rights reserved.
引用
收藏
页码:137 / 159
页数:23
相关论文
共 225 条
[81]  
Floresco SB, 2007, J PSYCHIATR NEUROSCI, V32, P400
[82]   Receptor-receptor interactions within receptor mosaics. Impact on neuropsychopharmacology [J].
Fuxe, K. ;
Marcellino, D. ;
Rivera, A. ;
Diaz-Cabiale, Z. ;
Filip, M. ;
Gago, B. ;
Roberts, D. C. S. ;
Langel, U. ;
Genedani, S. ;
Ferraro, L. ;
de la Calle, A. ;
Narvaez, J. ;
Tanganelli, S. ;
Woods, A. ;
Agnati, L. F. .
BRAIN RESEARCH REVIEWS, 2008, 58 (02) :415-452
[83]   Galanin modulates 5-hydroxytryptamine functions focus on galanin and galanin fragment 5-hydroxytryptamine1A receptor interactions in the brain [J].
Fuxe, K ;
Jansson, A ;
Diaz-Cabiale, Z ;
Andersson, A ;
Tinner, B ;
Finnman, UB ;
Misane, I ;
Razani, H ;
Wang, FH ;
Agnati, LF ;
Ögren, SO .
GALANIN: BASIC RESEARCH DISCOVERIES AND THERAPEUTIC IMPLICATIONS, 1998, 863 :274-290
[84]   Dynamics of volume transmission in the brain.: Focus on catecholamine and opioid peptide communication and the role of uncoupling protein 2 [J].
Fuxe, K ;
Rivera, A ;
Jacobsen, KX ;
Höistad, M ;
Leo, G ;
Horvath, TL ;
Staines, W ;
De la Calle, A ;
Agnati, LF .
JOURNAL OF NEURAL TRANSMISSION, 2005, 112 (01) :65-76
[85]   The dopamine D1 receptor-rich main and paracapsular intercalated nerve cell groups of the rat amygdala:: Relationship to the dopamine innervation [J].
Fuxe, K ;
Jacobsen, KX ;
Höistad, M ;
Tinner, B ;
Jansson, A ;
Staines, WA ;
Agnati, LF .
NEUROSCIENCE, 2003, 119 (03) :733-746
[86]   Intramembrane receptor-receptor interactions:: a novel principle in molecular medicine [J].
Fuxe, K. ;
Canals, M. ;
Torvinen, M. ;
Marcellino, D. ;
Terasmaa, A. ;
Genedani, S. ;
Leo, G. ;
Guidolin, D. ;
Diaz-Cabiale, Z. ;
Rivera, A. ;
Lundstrom, L. ;
Langel, U. ;
Narvaez, J. ;
Tanganelli, S. ;
Lluis, C. ;
Ferre, S. ;
Woods, A. ;
Franco, R. ;
Agnati, L. F. .
JOURNAL OF NEURAL TRANSMISSION, 2007, 114 (01) :49-75
[87]   PROLACTIN-LIKE IMMUNOREACTIVITY - LOCALIZATION IN NERVE-TERMINALS OF RAT HYPOTHALAMUS [J].
FUXE, K ;
HOKFELT, T ;
ENEROTH, P ;
GUSTAFSSON, JA ;
SKETT, P .
SCIENCE, 1977, 196 (4292) :899-900
[88]  
Fuxe K., 2009, ENCY NEUROSCIENCE, P655
[89]  
FUXE K, 1991, VOLUME TRANSMISSION, V1, P1
[90]   From the Golgi-Cajal mapping to the transmitter-based characterization of the neuronal networks leading to two modes of brain communication:: Wiring and volume transmission [J].
Fuxe, Kjell ;
Dahlstrom, Annica ;
Hoistad, Malin ;
Marcellino, Daniel ;
Jansson, Anders ;
Rivera, Alicia ;
Diaz-Cabiale, Zaida ;
Jacobsen, Kirsten ;
Tinner-Staines, Barbro ;
Hagman, Beth ;
Leo, Giuseppina ;
Staines, William ;
Guidolin, Diego ;
Kehr, Jan ;
Genedani, Susanna ;
Belluardo, Natale ;
Agnati, Luigi F. .
BRAIN RESEARCH REVIEWS, 2007, 55 (01) :17-54