paperjilo.blogg.se

Mosfet n type
Mosfet n type





mosfet n type

Nagel: Small Signal MOSFET Modelling for Analog Circuit Design. Presented at Workshop on Device Modelling for VLSI, Burlingame, CA (1979). Meyer: MOS Models and Circuit Simulation. Cobbold: Theory and Applications of Field-Effect Transistors. IEEE Transactions on Electron Devices ED-33, 955–964(1986). Rinerson: Model for the Channel-Implanted Enhancement-Mode IGFET. Barnes: A Statistical Modelling Approach for Simulation of MOS Circuit Designs. In: Process and Device Modelling for Integrated Circuit Design. van de Wiele: Ion Implanted MOS Transistors. IBM Journal of Research and Development 19, 50–59(1975).Į. LeBlanc: Device Design Considerations for Ion-Implanted n-Channel MOSFETs.

mosfet n type

Wright: Physical and CAD Models for the VLSI MOSFET. Abu-Zeid: MOSFET Model Continuous from Weak to Strong Inversion. Vogel: Analytical MOSFET Model with Easily Extracted Parameters. Memo, University of California, Berkeley, ERL M80 /7 (1980). Liu: The Simulation of MOS Integrated Circuits. Vassilieff: Accurate Two-Section Model for MOS Transistors in Saturation. IEEE Transactions on Electron Devices ED-19, 681–690 (1972). Cupcea: An Accurate Large-Signal MOS Model for Use in CAD. Klaassen: Review of Physical Models for MOS Transistors. Beneking: Drift-Geschwindigkeitssattigung bei MOS-Feldeffekt-Transistoren. IEEE Transactions on Electron Devices ED-16, 108–113 (1969). Grove: Conductance of MOS Transistors in Saturation. Hodges: Modelling and Simulation of Insulated-Gate Field- Effect Transistor Switching Circuits. IEEE Transactions Electron Devices ED-12, 129–138 (1965).

mosfet n type

Warfield: Carrier Mobility and Current Saturation in the MOS Transistor. IEEE Transactions on CAD of Integrated Circuits and Systems CAD-1, 163–168 (1982). Doganis: Optimized Extraction of MOS Model Parameters. of California, Berkeley, Memo ERL-M520 (1975).ĭ. Nagel: SPICE-2: A Computer Program to Simulate Semiconductor Circuits. Klaasen: A MOS Model for Computer-Aided Design. This process is experimental and the keywords may be updated as the learning algorithm improves.į. These keywords were added by machine and not by the authors. Since MOSFETs are also employed nowadays in analog circuitry, we finally discuss modelling for this more demanding application. This will be followed by a discussion of models for short-channel devices, in which a number of corresponding effects, like threshold voltage lowering etc., are taken into account. Therefore we shall first discuss models for long-channel devices. Generally the models concerned have followed the path of progress in processing technology, from devices with structural dimensions longer than 10 µm to present-day devices with possibly submicron dimensions. Examples are n-channel transistors with or without a p-type implanted layer in a p-type substrate and p-channel transistors with or without a shallow p-type implanted layer in an n-type substrate. Usually devices of this class are made on a uniform doped substrate or on a substrate with an implanted channel region. From the viewpoint of application, the enhancement-type transistor, which operates in the off-state mode at zero gate bias, is the most important MOSFET.







Mosfet n type