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Tang, D.D.1
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Inherent and stress-induced leakage in heavily-doped silicon junctions
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Hackbarth, E.1
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Modeling hot-carrier effects in polysilicon emitter bipolar transistors
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Hot carrier induced degradation in BiCMOS transistors
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C.-T. Sah, Fundamentals of Solid-State Electronics, Study Guide, Appendix B2. Singapore: World Scientific, Dec. 1993. See Figs. B2.1 and B2.2 on pp. 396–397 for the electronic pathways for positive and negative oxide charge buildup.
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Sah, C.-T.1
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An improved heterostructure-emitter bipolar transistor (HEBT)
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The basic device model and experimental data on BJT βF degradation were extensively described by A. Neugroschel and C.-T. Sah in a research report in Aug. 1992, (SRC publication C94320, Aug. 1994). The fundamental mechanisms based on earlier theoretical considerations (Lu and Sah, Aug. 1991) were described in [5] which were subsequently verified experimentally in [7].
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The basic device model and experimental data on BJT βF degradation were extensively described by A. Neugroschel and C.-T. Sah in a research report in Aug. 1992, (SRC publication C94320, Aug. 1994). The fundamental mechanisms based on earlier theoretical considerations (Lu and Sah, Aug. 1991) were described in [5] which were subsequently verified experimentally in [7].
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(1994)
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7
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0000243365
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Two pathways of positive oxide-charge build-up during electron tunneling into silicon dioxide film
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Oct. 15
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Y. Lu and C.-T. Sah, “Two pathways of positive oxide-charge build-up during electron tunneling into silicon dioxide film,” J. Appl. Phys., vol. 76, pp. 4724–4727, Oct. 15, 1994.
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Lu, Y.1
Sah, C.-T.2
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8
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84938450212
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Degradation of bipolar transistor current gain by hot holes during reverse emitter-base bias stress
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SRC publication C95059, also submitted to
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M. S. Carroll, A. Neugroschel, and C.-T. Sah, “Degradation of bipolar transistor current gain by hot holes during reverse emitter-base bias stress,” SRC publication C95059, also submitted to IEEE Electron Device Lett.
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IEEE Electron Device Lett.
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Carroll, M.S.1
Neugroschel, A.2
Sah, C.-T.3
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9
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84938442757
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Accelerated reverse emitter-base bias stress methodologies and time-to-failure applications
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SRC publication C95060, also submitted to IEEE Electron Device Lett.
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—, “Accelerated reverse emitter-base bias stress methodologies and time-to-failure applications,” SRC publication C95060, also submitted to IEEE Electron Device Lett.
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Carroll, M.S.1
Neugroschel, A.2
Sah, C.-T.3
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