Mechanism of Synaptic Transmission Mechanism of Synaptic Transmission: Chemical neurotransmitter is stored in tiny membrane-enclosed compartments in the nerve terminal called synaptic vesicles. Upon an electrical signal reaching the synapse, the vesicles fuse into the nerve terminal membrane, causing the vesicle membrane to break open and neurotransmitter to be released – a process called exocytosis. The empty vesicles then return to their original nerve terminal by endocytosis and are refilled with neurotransmitter to be reused for another round of synaptic transmission – a recycling mechanism that enables long-lasting synaptic transmission. Mechanism of Synaptic Transmission: Chemical neurotransmitter is stored in tiny membrane-enclosed compartments in the nerve terminal called synaptic vesicles. Upon an electrical signal reaching the synapse, the vesicles fuse into the nerve terminal membrane, causing the vesicle membrane to break open and neurotransmitter to be released – a process called exocytosis. The empty vesicles then return to their original nerve terminal by endocytosis and are refilled with neurotransmitter to be reused for another round of synaptic transmission – a recycling mechanism that enables long-lasting synaptic transmission. Date: 07 November 2012 Copyright OIST (Okinawa Institute of Science and Technology Graduate University, 沖縄科学技術大学院大学). Creative Commons Attribution 4.0 International License (CC BY 4.0). Download full-resolution image Tags Faculty Research Share on: Related Images Steps of nitrogen removal to produce concentrated oxygen Four steps are repeated in a cycle to remove nitrogen from the air. The blue and red arrows show the changes in the flow of pressurized air through the device in each step. This process is used in the device engineered by Professor Mahesh Bandi of the Nonlinear and Non-equilibrium Physics Unit to produce concentrated medical-grade oxygen. Tetrahedral Lattice of Spin Ice Prime Minister Abe asks Professor Satoh a question about his research Assistant Professor Evan P. Economo Assistant Professor Evan P. Economo Fijian Ant Specimens Fijian ant specimens from Prof. Economo’s lab.
Steps of nitrogen removal to produce concentrated oxygen Four steps are repeated in a cycle to remove nitrogen from the air. The blue and red arrows show the changes in the flow of pressurized air through the device in each step. This process is used in the device engineered by Professor Mahesh Bandi of the Nonlinear and Non-equilibrium Physics Unit to produce concentrated medical-grade oxygen.
Steps of nitrogen removal to produce concentrated oxygen Four steps are repeated in a cycle to remove nitrogen from the air. The blue and red arrows show the changes in the flow of pressurized air through the device in each step. This process is used in the device engineered by Professor Mahesh Bandi of the Nonlinear and Non-equilibrium Physics Unit to produce concentrated medical-grade oxygen.