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收集所有交通大學研究人員與學生個人或團體所發表之各項學術著作，涵蓋期刊論文、教師專書、學位論文等項。;;Collections of Publications of NCTU Researchers and Students Like Journal Papers and Thesis.

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🏛️國立陽明交通大學機構典藏

Author: search.filters.author.Li, Tien-YehSubject: search.filters.subject.Modeling and Simulation

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    Characteristics Variability of Novel Lateral Asymmetry Nano-MOSFETs due to Random Discrete Dopant
    (2009)
    Lee, Kou-Fu
    ;
    Hwang, Chih-Hong
    ;
    Li, Tien-Yeh
    ;
    Li, Yiming
    ;
    電信工程研究所
    In nanoscale silicon FETs, the lateral asymmetric channel (LAC) devices with higher channel doping concentration near the source-end have shown better control of the short channel effects. However, such asymmetric doping profile may introduce different fluctuations in device characteristics. In this paper, the asymmetric sketch of random dopants distribution near source and drain sides in 16 nm bulk MOSFETs' channel is explored. Discrete dopants distributed near-source end and near-drain end of channel region induce rather different fluctuations of gate capacitance and high frequency characteristics. The proposed inverse lateral asymmetry doping profile can effectively suppress both the DC and high frequency characteristic fluctuations, which may benefit the design of sub-20-nm MOSFETs.
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    Item type:Item,
    Reduction of Discrete-Dopant-Induced High-Frequency Characteristic Fluctuations in Nanoscale CMOS Circuit
    (2008)
    Li, Yiming
    ;
    Hwang, Chih-Hong
    ;
    Yeh, Ta-Ching
    ;
    Huang, Hsuan-Ming
    ;
    Li, Tien-Yeh
    As the dimension of semiconductor device shrunk into nanoscale, characteristic fluctuation is more pronounced, and become crucial for circuit design. Diverse approaches have been reported to investigate and suppress the random-dopant-induced fluctuations in devices. However, attention is seldom drawn to the existence of high-frequency characteristic fluctuations of active device. In this paper, intrinsic high-frequency characteristic fluctuations of the nanoscale MOSFET circuit induced by random dopants are intensively explored using an experimentally validated simulation methodology, where fluctuation suppression technique is further examined. The circuit gain, the 3db bandwidth and the unity-gain bandwidth of the tested circuit are estimated concurrently capturing the discrete-dopant-number-and discrete-dopant-position-induced fluctuations. This study provides an insight into discrete-dopant-induced intrinsic high-frequency characteristic fluctuations and examines the potential fluctuation suppression technique for nanoscale transistor circuit.