An energy-dependent two-dimensional substrate current model for the simulation of submicrometer MOSFET's
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作者:
Agostinelli Jr., V.M.
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机构:
Dept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USADept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USA
Agostinelli Jr., V.M.
[1
]
Bordelon, T.J.
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机构:
Dept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USADept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USA
Bordelon, T.J.
[1
]
Wang, X.L.
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机构:
Dept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USADept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USA
Wang, X.L.
[1
]
Yeap, C.F.
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机构:
Dept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USADept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USA
Yeap, C.F.
[1
]
Maziar, Christine M.
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机构:
Dept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USADept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USA
Maziar, Christine M.
[1
]
Tasch, Al F.
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机构:
Dept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USADept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USA
Tasch, Al F.
[1
]
机构:
[1] Dept of Electr & Comput Eng,, Univ of Texas, Austin, TX, USA
来源:
Electron device letters
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1992年
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13卷
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11期
关键词:
Computer simulation - Ionization - Monte Carlo methods - Substrates;
D O I:
暂无
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摘要:
A multicurrent contour, average-energy-based, substrate current model for silicon submicrometer NMOSFETs is presented as a significant improvement to the local-field model that is commonly used in modern drift-diffusion device simulators. The model is implemented as a post-processor by applying a one-dimensional energy conservation equation to many current contours in order to generate a two-dimensional representation of average energy and impact ionization rate which is integrated to calculate the substrate current. Comparisons of simulations and experimental I-V curves for both simple and LDD MOSFETs are presented. Outstanding agreement has been obtained over a wide range of bias conditions and channel lengths.