The Goldman equation is a mathematical formula that describes the ionic movement across a membrane that is permeable to multiple ions. It takes into account the concentration gradients and permeabilities of the ions involved and predicts the resting membrane potential of a cell. The equation is named after David Goldman, who was a physiologist at Harvard University and first proposed the equation in 1943.
The Goldman equation is represented as:
Vm = (RT/zF) ln {[P[K+]out + P[Na+]out + P[Cl-]in] / [P[K+]in + P[Na+]in + P[Cl-]out]}
where Vm is the membrane potential, R is the gas constant, T is the temperature in Kelvin, z is the valence of the ion in question, F is Faraday's constant, and P is the permeability of the ion.
The Goldman equation is used extensively in the study of cellular physiology, including action potential generation, nerve conduction, and excitation-contraction coupling in muscle cells. It is a basis for our understanding of how electrical signaling occurs in biological systems, and is a fundamental tool for electrophysiologists and neurophysiologists.
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