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Ion dynamics near charged electrodes with excluded volume effect
By: Young, A.M.; Riddle, B.; Baker-Jarvis, J.;
1999 / IEEE
Description
This item was taken from the IEEE Periodical ' Ion dynamics near charged electrodes with excluded volume effect ' The goal of this paper is to analyze ion relaxation around a charged electrode taking into account finite ion volume and frequency. Time-dependent and electrostatic equations for ion behaviour near an electrode are developed and include the effects of nonequilibrium and steric hindrance. Time-dependent wave equations for the potentials are developed in the Lorentz gauge. The charge density is expressed as a sum of the quasi-steady state solution plus a nonequilibrium term. For slowly changing potentials the ions are in quasi-equilibrium and we show that in this limit the potential satisfies the sinh-Gordon equation. New solutions to this nonlinear time-dependent equation are developed. In the low voltage limit the equation reduces to the Klein-Gordon equation, time-dependent analog of the Debye-Huckel equation. We also present equations for capacitance and surface charge.
Related Topics
Poisson Equation
Boltzmann Equation
Electrostatics
Sine-gordon Equation
Capacitance
Surface Charging
Ion Mobility
Surface Charge
Ion Dynamics
Charged Electrodes
Excluded Volume Effect
Ion Relaxation
Finite Ion Volume
Time-dependent Equations
Ion Behaviour
Steric Hindrance
Nonequilibrium Effects
Time-dependent Wave Equations
Lorentz Gauge
Quasi-steady State Solution
Sinh-gordon Equation
Nonlinear Time-dependent Equation
Klein-gordon Equation
Capacitance
Electrodes
Poisson Equations
Differential Equations
Integral Equations
Electrostatics
Capacitance
Current Density
Partial Differential Equations
Nonlinear Equations
Radio Frequency
Electrochemical Electrodes
Engineered Materials, Dielectrics And Plasmas
Fields, Waves And Electromagnetics
Engineering
Electrostatic Equations