
pmid: 19964206
This paper contains results on the design of electrical signals for delivering charge through electrodes to achieve neural stimulation. A generalization of the usual constant current stimulation phase to a stepped current waveform is presented. The electrode current design is then formulated as the calculation of the current step sizes to minimize the peak electrode voltage while delivering a specified charge in a given number of time steps. This design problem can be formulated as a finite linear program, or alternatively by using techniques for discrete-time linear system design.
Models, Neurological, Action Potentials, Animals, Humans, Computer Simulation, Electric Stimulation Therapy, Peripheral Nerves, Electric Stimulation
Models, Neurological, Action Potentials, Animals, Humans, Computer Simulation, Electric Stimulation Therapy, Peripheral Nerves, Electric Stimulation
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