Surface-potential-based drain current analytical model for triple-gate junctionless nanowire transistors
N/D
Tipo de produção
Artigo
Data de publicação
2012-01-05
Texto completo (DOI)
Periódico
IEEE Transactions on Electron Devices
Editor
Texto completo na Scopus
Citações na Scopus
93
Autores
TREVISOLI, R. D.
Rodrido Doria
Michelly De Souza
DAS, S.
FERAIN, I.
Marcelo Antonio Pavanello
Orientadores
Resumo
This paper proposes a drain current model for triple-gate n-type junctionless nanowire transistors. The model is based on the solution of the Poisson equation. First, the 2-D Poisson equation is used to obtain the effective surface potential for long-channel devices, which is used to calculate the charge density along the channel and the drain current. The solution of the 3-D Laplace equation is added to the 2-D model in order to account for the short-channel effects. The proposed model is validated using 3-D TCAD simulations where the drain current and its derivatives, the potential, and the charge density have been compared, showing a good agreement for all parameters. Experimental data of short-channel devices down to 30 nm at different temperatures have been also used to validate the model. © 2012 IEEE.
Citação
TREVISOLI, R. D.; DORIA, R.; DE SOUZA, M.; PAVANELLO, M. A.; DAS, S. Surface-potential-based drain current analytical model for triple-gate junctionless nanowire transistors. IEEE Transactions on Electron Devices, v. 59, n. 12, p. 3510-3518, 2012.
Palavras-chave
Keywords
Drain current model; junctionless nanowire transistors (JNTs); short-channel effects (SCEs); temperature dependence
Assuntos Scopus
2-D model; Drain current models; Junctionless; Long channel devices; Nanowire transistors; Short-channel devices; Short-channel effect; TCAD simulation; Temperature dependence; Triple-gate