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  1. 広島大学博士論文
  2. 2012年度以前

Development of High-Speed Silicon Devices and Their Design with Advanced Physical Models

https://hiroshima.repo.nii.ac.jp/records/2005303
https://hiroshima.repo.nii.ac.jp/records/2005303
679ef5fa-bcec-457b-8ce1-d1f331686fb1
名前 / ファイル ライセンス アクション
diss_otsu3169.pdf diss_otsu3169.pdf (18.9 MB)
Item type デフォルトアイテムタイプ_(フル)(1)
公開日 2023-03-18
タイトル
タイトル Development of High-Speed Silicon Devices and Their Design with Advanced Physical Models
言語 en
作成者 Goto, Hiroshi

× Goto, Hiroshi

en Goto, Hiroshi

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アクセス権
アクセス権 open access
アクセス権URI http://purl.org/coar/access_right/c_abf2
主題
主題Scheme NDC
主題 540
内容記述
内容記述 In the field of high-speed silicon devices, silicon bipolar junction transistors (BJTs) had played a major role from the 1970s to the end of the 1980s. However, in the 1990s complementary metal-oxide-semiconductor (CMOS) .field effect transistors (FETs) have been replacing their position. This dissertation explains the reasons why BJTs were suitable for high-speed operation. This is concluded from the development of technologies for BJTs and the analyses of devices fabricated with these technologies. At the same time it clarifies why they were replaced by CMOS transistors. The BJT's high driving capability and large power dissipation were the both sides of a sword. In the case of high-speed CMOS devices, the driving current of MOSFET should be large enough, and device design must be based on precise comprehension of carrier transport in MOSFETs. Therefore, we need accurate device model as well as rigid device-structure information obtained by experiments. This dissertation describes the device design methodology not only based on inverse modeling to extract device structures consistent with all kinds of experimental results but also based on simulations by generalized hydrodynamic model and full-band Monte Carlo model. The background and concept of the methodology is also discussed, and its necessity in future development is clarified. Moreover, hot carrier modeling is discussed by employing full-band Monte Carlo device simulation. Also, this dissertation clarifies the fact there is no experimental evidence for the difference between the surface and bulk impact ionization mechanism in silicon. The reported difference in the literature was only caused by an unsound application of the local field model and was just an artifact. Finally, by using these sophisticated models, the saturation drain current as well as hot carrier effects of subquarter micron MOSFETs are analyzed. MOSFET design strategy for the 0.1 μ m regime is discussed and the importance of shallow junction for source/drain extension is also clarified.
言語 en
言語
言語 eng
資源タイプ
資源タイプ識別子 http://purl.org/coar/resource_type/c_db06
資源タイプ doctoral thesis
学位授与番号
学位授与番号 乙第3169号
学位名
言語 ja
学位名 博士(工学)
学位名
言語 en
学位名 博士(工学)
学位授与年月日
学位授与年月日 1999-02-10
学位授与機関
学位授与機関識別子Scheme kakenhi
学位授与機関識別子 15401
言語 ja
学位授与機関名 広島大学
学位授与機関
言語 en
学位授与機関名 Hiroshima University
旧ID 36789
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