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Investigation of transmitter-receptor interactions by analyzing postsynaptic membrane noise using stochastic kinetics

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Abstract

The stoichiometric and kinetic details of transmitter-receptor interaction (the number of conformations and the rate constants of conformation changes) in synaptic transmission have been investigated analyzing postsynaptic membrane noises by the aid of the fluctuation-dissipation theorem of stochastic chemical kinetics. The main assumptions are the following: (i) the transmitter-receptor interaction is modelled by a closed compartment system (a special complex chemical reaction) of unknown length,- (ii) the quantity of transmitter is maintained at a constant level,- (iii) the conductance is a linear function of the conformation quantity vector.- The main conclusion is: the conductance spectral density function is determined by three qualitatively different factors: (i) the length of the compartment system,- (ii) the precise form of the conductance-conformation quantity vector,-(iii) the matrix of the reaction rate constants.

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Erdi, P., Ropolyi, L. Investigation of transmitter-receptor interactions by analyzing postsynaptic membrane noise using stochastic kinetics. Biol. Cybernetics 32, 41–45 (1979). https://doi.org/10.1007/BF00337450

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