Simulation of 0.18 micron MOSFET and its characterization

The research is focused on the development of 0.18µm channel length of nchannel (NMOS) and p-channel (PMOS) enhancement mode MOSFET. Simulation of the process is carried out using Silvaco Athena to modify theoretical values and obtain more accurate process parameters. Non-ideal effect of a MOSFET d...

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Main Author: Ahmad Radzi, Syafeeza
Format: Thesis
Language:English
Published: 2005
Subjects:
Online Access:http://eprints.utm.my/3005/
http://eprints.utm.my/3005/1/SyafeezaAhmadRadziMFKE2005.pdf
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author Ahmad Radzi, Syafeeza
author_facet Ahmad Radzi, Syafeeza
author_sort Ahmad Radzi, Syafeeza
building UTeM Institutional Repository
collection Online Access
description The research is focused on the development of 0.18µm channel length of nchannel (NMOS) and p-channel (PMOS) enhancement mode MOSFET. Simulation of the process is carried out using Silvaco Athena to modify theoretical values and obtain more accurate process parameters. Non-ideal effect of a MOSFET design such as short channel effects is investigated. The most common effect that generally occurs in the short channel MOSFETs are channel modulation, drain induced barrier lowering (DIBL), punch-through and hot electron effect. Several advanced method such as lightly-doped drain (LDD), halo implant and retrograde well is applied to reduce the short channel effects. At the device simulation process, the electrical parameter is extracted to investigate the device characteristics. Several design analysis are performed to investigate the effectiveness of the advanced method in order to prevent the varying of threshold voltage or short channel effect of a MOSFET device
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format Thesis
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institution Universiti Teknologi Malaysia
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language English
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publishDate 2005
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spelling utm-30052018-06-25T00:45:59Z http://eprints.utm.my/3005/ Simulation of 0.18 micron MOSFET and its characterization Ahmad Radzi, Syafeeza TK Electrical engineering. Electronics Nuclear engineering The research is focused on the development of 0.18µm channel length of nchannel (NMOS) and p-channel (PMOS) enhancement mode MOSFET. Simulation of the process is carried out using Silvaco Athena to modify theoretical values and obtain more accurate process parameters. Non-ideal effect of a MOSFET design such as short channel effects is investigated. The most common effect that generally occurs in the short channel MOSFETs are channel modulation, drain induced barrier lowering (DIBL), punch-through and hot electron effect. Several advanced method such as lightly-doped drain (LDD), halo implant and retrograde well is applied to reduce the short channel effects. At the device simulation process, the electrical parameter is extracted to investigate the device characteristics. Several design analysis are performed to investigate the effectiveness of the advanced method in order to prevent the varying of threshold voltage or short channel effect of a MOSFET device 2005-10 Thesis NonPeerReviewed application/pdf en http://eprints.utm.my/3005/1/SyafeezaAhmadRadziMFKE2005.pdf Ahmad Radzi, Syafeeza (2005) Simulation of 0.18 micron MOSFET and its characterization. Masters thesis, Universiti Teknologi Malaysia, Faculty of Electrical Engineering.
spellingShingle TK Electrical engineering. Electronics Nuclear engineering
Ahmad Radzi, Syafeeza
Simulation of 0.18 micron MOSFET and its characterization
title Simulation of 0.18 micron MOSFET and its characterization
title_full Simulation of 0.18 micron MOSFET and its characterization
title_fullStr Simulation of 0.18 micron MOSFET and its characterization
title_full_unstemmed Simulation of 0.18 micron MOSFET and its characterization
title_short Simulation of 0.18 micron MOSFET and its characterization
title_sort simulation of 0.18 micron mosfet and its characterization
topic TK Electrical engineering. Electronics Nuclear engineering
url http://eprints.utm.my/3005/
http://eprints.utm.my/3005/1/SyafeezaAhmadRadziMFKE2005.pdf