TY - JOUR
T1 - Ion channels in presynaptic nerve terminals and control of transmitter release
AU - Meir, Alon
AU - Ginsburg, Simona
AU - Butkevich, Alexander
AU - Kachalsky, Sylvia G.
AU - Kaiserman, Igor
AU - Ahdut, Ronit
AU - Demirgoren, Serdar
AU - Rahamimoff, Rami
PY - 1999/7
Y1 - 1999/7
N2 - The primary function of the presynaptic nerve terminal is to release transmitter quanta and thus activate the postsynaptic target cell. In almost every step leading to the release of transmitter quanta, there is a substantial involvement of ion channels. In this review, the multitude of ion channels in the presynaptic terminal are surveyed. There are at least 12 different major categories of ion channels representing several tens of different ion channel types; the number of different ion channel molecules at presynaptic nerve terminals is many hundreds. We describe the different ion channel molecules at the surface membrane and inside the nerve terminal in the context of their possible role in the process of transmitter release. Frequently, a number of different ion channel molecules, with the same basic function, are present at the same nerve terminal. This is especially evident in the cases of calcium channels and potassium channels. This abundance of ion channels allows for a physiological and pharmacological fine tuning of the process of transmitter release and thus of synaptic transmission.
AB - The primary function of the presynaptic nerve terminal is to release transmitter quanta and thus activate the postsynaptic target cell. In almost every step leading to the release of transmitter quanta, there is a substantial involvement of ion channels. In this review, the multitude of ion channels in the presynaptic terminal are surveyed. There are at least 12 different major categories of ion channels representing several tens of different ion channel types; the number of different ion channel molecules at presynaptic nerve terminals is many hundreds. We describe the different ion channel molecules at the surface membrane and inside the nerve terminal in the context of their possible role in the process of transmitter release. Frequently, a number of different ion channel molecules, with the same basic function, are present at the same nerve terminal. This is especially evident in the cases of calcium channels and potassium channels. This abundance of ion channels allows for a physiological and pharmacological fine tuning of the process of transmitter release and thus of synaptic transmission.
UR - http://www.scopus.com/inward/record.url?scp=0032778263&partnerID=8YFLogxK
U2 - 10.1152/physrev.1999.79.3.1019
DO - 10.1152/physrev.1999.79.3.1019
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C2 - 10390521
AN - SCOPUS:0032778263
SN - 0031-9333
VL - 79
SP - 1019
EP - 1088
JO - Physiological Reviews
JF - Physiological Reviews
IS - 3
ER -