Zobrazeno 1 - 10
of 89
pro vyhledávání: '"J. Gelpey"'
Autor:
Filadelfo Cristiano, Silke Paul, H. Kheyrandish, Wilfried Lerch, J. Niess, Fabrice Severac, J. Gelpey, Pier-Francesco Fazzini, D. Bolze, A. Martinez-Limia, S. McCoy, Peter Pichler
Publikováno v:
Materials Science and Engineering: B. :3-13
Millisecond annealing as an equipment technology provides temperature profiles which favour dopant activation but nearly eliminate dopant diffusion to form extremely shallow, highly electrically activated junctions. For the 45-nm technology node and
Publikováno v:
Materials Science Forum. :257-267
Millisecond annealing (MSA) has been developed over the last several years as a viable approach to achieve the high electrical activation, limited diffusion and high abruptness needed for junctions in the sub-65nm regime. This paper will provide an o
Autor:
Silke Paul, Wolfgang Windl, L.F. Giles, S. McCoy, Wilfried Lerch, Zsolt Nenyei, Jürgen Niess, J. Gelpey, Alexander Burenkov, Peter Pichler, Jurgen Lorenz
Publikováno v:
Scopus-Elsevier
The continuous scaling of electron devices places strong demands on device design and simulation. The currently prevailing bulk transistors as well as future designs based on thin silicon layers all require a tight control of the dopant distribution.
Autor:
T. Selinger, Peter B. Griffin, J. Gelpey, S. H. Jain, D. F. Downey, James D. Plummer, S. McCoy
Publikováno v:
IEEE Transactions on Electron Devices. 52:1610-1615
Junction formation using solid phase epitaxial (SPE) regrowth has been gaining popularity due to its high activation and low thermal budget which results in lower diffusion. Recently, it was shown that by carrying out the SPE regrowth at 1050/spl deg
Autor:
James D. Plummer, T. Selinger, J. Gelpey, S. McCoy, Peter B. Griffin, D. F. Downey, S. H. Jain
Publikováno v:
Journal of Applied Physics. 96:7357-7360
There has been considerable interest recently, in the formation of the source drain junctions of metal oxide semiconductor transistors using solid phase epitaxy (SPE) to activate the dopants rather than a traditional high temperature anneal. Previous
Publikováno v:
Microelectronic Engineering. 48:55-58
In this paper, we report ultra thin high quality nitride/oxide gate dielectrics prepared by rapid thermal NH 3 nitridation of Si followed by in-situ N 2 O oxidation (NH 3 +H 2 O process). These films show excellent interface properties, significant l
Publikováno v:
Journal of Electronic Materials. 27:1323-1328
A study on the techniques to yield wafer emissivity independent temperature measurements in rapid thermal processing has been presented. This study focuses on the Steag-AST Electronik approach to enhance wafer emissivity by using the Hotliner*. The H
Publikováno v:
JOM. 58:32-34
This paper discusses the engineering of ultra-shallow junctions for advanced semiconductors using an annealing technique called Flash-Assist RTPTM (fRTP). This technique offers effective process times in 1–10 ms. A discussion on the evolution of ra
Publikováno v:
ECS Transactions
ECS Transactions, 2012, 45 (6), pp.151-161. ⟨10.1149/1.3700948⟩
ECS Transactions, Electrochemical Society, Inc., 2012, 45 (6), pp.151-161. ⟨10.1149/1.3700948⟩
ECS Transactions, 2012, 45 (6), pp.151-161. ⟨10.1149/1.3700948⟩
ECS Transactions, Electrochemical Society, Inc., 2012, 45 (6), pp.151-161. ⟨10.1149/1.3700948⟩
The required temperature in semiconductor process technology is going in two extreme directions. Either very high temperatures (up to 1300°C) with very short durations on the order of milliseconds are required for highest dopant activation, or extre
Externí odkaz:
https://explore.openaire.eu/search/publication?articleId=doi_dedup___::4e70205d8b09762e60955601cfb96443
https://hal.science/hal-01922632
https://hal.science/hal-01922632
Autor:
Dae-Gyu Park, Paul Ronsheim, Kam Leung Lee, Isaac Lauer, S. McCoy, J. Gelpey, S. Skordas, P. Kulkarni, Yu Zhu, Deborah A. Neumayer, J. Chan
Publikováno v:
2010 International Workshop on Junction Technology Extended Abstracts.
A new combination of long millisecond (1–2.5 ms) flash anneal at high peak temperature(1200–1300°C) and a new absorber with low deposition temperature (