A unified charge-based model for SOI MOSFETs is presented. The proposed model is valid and accurate from intrinsic to heavily doped channel with various structure parameter variations. The framework starts from one-dimension Poisson-Boltzmann's equation. Based on the full depletion approximation, an accurate inversion charge density equation is obtained. With the inversion charge density solution, the unified drain current expression is derived. And the unified terminal charge and intrinsic capacitance model is also derived under quasi-static case. The validity and accuracy of presented analytic model is proved by extensive verification with numerical simulation.EI
This paper presents a noncharge-sheet channel potential and drain current model for long-channel dyn...
We present a new unified analytical front surface potential model. It is valid in all regions of ope...
A charge-based compact model that includes the dynamic depletion behavior for arbitrary doped surrou...
A unified charge-based model for fully depleted silicon-on-insulator (SOI) metal-oxide semiconductor...
A unified charge-based model for fully depleted silicon-on-insulator (SOI) metal-oxide semiconductor...
A unified charge-based model for heavily doped and undoped symmetric DG MOSFETs is presented in this...
A unified charge-based model for heavily doped and undoped symmetric DG MOSFETs is presented in this...
This paper presents a unified charge-based model for symmetric double-gate (DG) MOSFETs with a wide ...
This paper presents a charge-based compact model for the arbitrary doped long-channel cylindrical su...
A charge-based model is presented for long-channel cylindrical surrounding-gate (SRG) MOSFETs from a...
This paper presents a charge-based compact model for predicting the current-voltage and capacitance-...
This paper presents a charge-based compact model for the arbitrary doped long-channel cylindrical su...
Abstract – An empirical non-linear model for SOI MOSFET useful for large-signal simulations of high...
Based on a 1D Poissons equation resolution, we present an analytic model of inversion charges allowi...
This paper presents a new and more accurate potential based model for bulk MOSFET compared to the tr...
This paper presents a noncharge-sheet channel potential and drain current model for long-channel dyn...
We present a new unified analytical front surface potential model. It is valid in all regions of ope...
A charge-based compact model that includes the dynamic depletion behavior for arbitrary doped surrou...
A unified charge-based model for fully depleted silicon-on-insulator (SOI) metal-oxide semiconductor...
A unified charge-based model for fully depleted silicon-on-insulator (SOI) metal-oxide semiconductor...
A unified charge-based model for heavily doped and undoped symmetric DG MOSFETs is presented in this...
A unified charge-based model for heavily doped and undoped symmetric DG MOSFETs is presented in this...
This paper presents a unified charge-based model for symmetric double-gate (DG) MOSFETs with a wide ...
This paper presents a charge-based compact model for the arbitrary doped long-channel cylindrical su...
A charge-based model is presented for long-channel cylindrical surrounding-gate (SRG) MOSFETs from a...
This paper presents a charge-based compact model for predicting the current-voltage and capacitance-...
This paper presents a charge-based compact model for the arbitrary doped long-channel cylindrical su...
Abstract – An empirical non-linear model for SOI MOSFET useful for large-signal simulations of high...
Based on a 1D Poissons equation resolution, we present an analytic model of inversion charges allowi...
This paper presents a new and more accurate potential based model for bulk MOSFET compared to the tr...
This paper presents a noncharge-sheet channel potential and drain current model for long-channel dyn...
We present a new unified analytical front surface potential model. It is valid in all regions of ope...
A charge-based compact model that includes the dynamic depletion behavior for arbitrary doped surrou...