A thermionic-diffusion model of polysilicon emitter
Chris Ng, E.S. Yang
Abstract
Chris Ng, E.S. Yang
Abstract
A model has been developed to characterize the hole current through an n-type polysilicon emitter in terms of thermionic emission acting in series with drift-diffusion. The thermionic emission results from the steep potential barrier which is induced by impurity segregation at the polysilicon-silicon interface. The total hole current, according to this model, depends on the peak doping concentration and the Gummel number of the monosilicon region of the emitter.
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A model has been developed to characterize the hole current through an n-type polysilicon emitter in terms of thermionic emission acting in series with drift-diffusion. The thermionic emission results from the steep potential barrier which is induced by impurity segregation at the polysilicon-silicon interface. The total hole current, according to this model, depends on the peak doping concentration and the Gummel number of the monosilicon region of the emitter.
Key concepts: Thermionic emission, Common emitter, Materials science, Silicon, Doping, Impurity, Diffusion, Current (fluid)