Distributed modeling of layout parasitics effects in CMOS power devices
Doris A. Chan, M. Feng
Abstract
Doris A. Chan, M. Feng
Abstract
The effects of distributed power device model optimization and extraction techniques are incorporated to predict the f T , f max , transducer power gain and output power in 130 nm CMOS. Small signal and large signal of BSEVI-RF model, ICF-D1 model, and measured power device results are compared for model verification.
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The effects of distributed power device model optimization and extraction techniques are incorporated to predict the f T , f max , transducer power gain and output power in 130 nm CMOS. Small signal and large signal of BSEVI-RF model, ICF-D1 model, and measured power device results are compared for model verification.
Key concepts: Parasitic extraction, CMOS, Power (physics), Electronic engineering, Transducer, Semiconductor device modeling, SIGNAL (programming language), Small-signal model