Investigation of shallow trench isolation and silicide effect on 90nm CMOS devices / Abu Hudzaifah Baharom

Strained technology is used to enhance the performance of the CMOS that involves physically stretching or compressing the silicon crystal lattice, which in turn increasing carrier mobility without having to make them smaller. Shallow-trench isolation (STI) and silicidation process is the way of stra...

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主要作者: Baharom, Abu Hudzaifah
格式: Thesis
語言:English
出版: 2010
在線閱讀:https://ir.uitm.edu.my/id/eprint/102995/1/102995.pdf
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spelling my-uitm-ir.1029952024-09-30T06:40:06Z Investigation of shallow trench isolation and silicide effect on 90nm CMOS devices / Abu Hudzaifah Baharom 2010 Baharom, Abu Hudzaifah Strained technology is used to enhance the performance of the CMOS that involves physically stretching or compressing the silicon crystal lattice, which in turn increasing carrier mobility without having to make them smaller. Shallow-trench isolation (STI) and silicidation process is the way of strained technology process applied in this investigation. This project discussed on the effect of strain technology on 90nm CMOS device performance focusing on threshold voltage and drain current parameter. Athena and Atlas simulators were used to simulate the process and to characterize the electrical properties respectively. It can be concluded that CMOS with STI and Silicide have better performance than the conventional CMOS. It shows that drain current with STI have been improved by 10% in PMOS and 90.7% in NMOS. While by using Silicide it shows 5.4% in PMOS and 1.82% in NMOS improvement. 2010 Thesis https://ir.uitm.edu.my/id/eprint/102995/ https://ir.uitm.edu.my/id/eprint/102995/1/102995.pdf text en public degree Universiti Teknologi MARA Faculty of Electrical Engineering
institution Universiti Teknologi MARA
collection UiTM Institutional Repository
language English
description Strained technology is used to enhance the performance of the CMOS that involves physically stretching or compressing the silicon crystal lattice, which in turn increasing carrier mobility without having to make them smaller. Shallow-trench isolation (STI) and silicidation process is the way of strained technology process applied in this investigation. This project discussed on the effect of strain technology on 90nm CMOS device performance focusing on threshold voltage and drain current parameter. Athena and Atlas simulators were used to simulate the process and to characterize the electrical properties respectively. It can be concluded that CMOS with STI and Silicide have better performance than the conventional CMOS. It shows that drain current with STI have been improved by 10% in PMOS and 90.7% in NMOS. While by using Silicide it shows 5.4% in PMOS and 1.82% in NMOS improvement.
format Thesis
qualification_level Bachelor degree
author Baharom, Abu Hudzaifah
spellingShingle Baharom, Abu Hudzaifah
Investigation of shallow trench isolation and silicide effect on 90nm CMOS devices / Abu Hudzaifah Baharom
author_facet Baharom, Abu Hudzaifah
author_sort Baharom, Abu Hudzaifah
title Investigation of shallow trench isolation and silicide effect on 90nm CMOS devices / Abu Hudzaifah Baharom
title_short Investigation of shallow trench isolation and silicide effect on 90nm CMOS devices / Abu Hudzaifah Baharom
title_full Investigation of shallow trench isolation and silicide effect on 90nm CMOS devices / Abu Hudzaifah Baharom
title_fullStr Investigation of shallow trench isolation and silicide effect on 90nm CMOS devices / Abu Hudzaifah Baharom
title_full_unstemmed Investigation of shallow trench isolation and silicide effect on 90nm CMOS devices / Abu Hudzaifah Baharom
title_sort investigation of shallow trench isolation and silicide effect on 90nm cmos devices / abu hudzaifah baharom
granting_institution Universiti Teknologi MARA
granting_department Faculty of Electrical Engineering
publishDate 2010
url https://ir.uitm.edu.my/id/eprint/102995/1/102995.pdf
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