In this work, the frequency-domain Spectral Balance technique, which has been demonstrated to be a viable alternative to the mixed-domain Harmonic Balance technique is combined to the space-domain polynomial expansion of the physical quantities inside the semiconductor for the solution of steady-state nonlinear differential equations and applied to the physical analysis of multifinger MOSFET devices in linear and nonlinear regime and coupled to a commercial electromagnetic solver. This method allows a really fast CAD analysis both in DC and RF periodic regime especially when global modeling is required. A quasi-2D hydrodynamic formulation is given for a 0.35μm gate length with 10μm periphery three finger MOSFET; results are compared to those of a standard physical time-domain, a Harmonic Balance and Spectral Balance for time comparison. Moreover S-parameter comparisons with a commercial CAD tools with a compact model for circuit analysis are also given. © 2009 EuMA.
Fast physic based analysis of multifinger MOSFETs with SB-SP combined method for global modeling
LEUZZI, GIORGIO;STORNELLI, Vincenzo
2009-01-01
Abstract
In this work, the frequency-domain Spectral Balance technique, which has been demonstrated to be a viable alternative to the mixed-domain Harmonic Balance technique is combined to the space-domain polynomial expansion of the physical quantities inside the semiconductor for the solution of steady-state nonlinear differential equations and applied to the physical analysis of multifinger MOSFET devices in linear and nonlinear regime and coupled to a commercial electromagnetic solver. This method allows a really fast CAD analysis both in DC and RF periodic regime especially when global modeling is required. A quasi-2D hydrodynamic formulation is given for a 0.35μm gate length with 10μm periphery three finger MOSFET; results are compared to those of a standard physical time-domain, a Harmonic Balance and Spectral Balance for time comparison. Moreover S-parameter comparisons with a commercial CAD tools with a compact model for circuit analysis are also given. © 2009 EuMA.Pubblicazioni consigliate
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