Biaxial and Uniaxial Compressive Stress Implemented in Ge(Sn) pMOSFET Channels by Advanced Reduced Pressure Chemical Vapor Deposition Developments

Three advanced architectures for ultimate progress in Ge p-Metal Oxide Semiconductor Field Effect Transistors are discussed in this paper. Different routes for stress implementations in Ge channels, either biaxial or uniaxial, are proposed by advanced selective Chemical Vapor Deposition techniques....

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Hauptverfasser: Vincent, Benjamin, Gencarelli, Federica, Lin, Denis, Nyns, Laura, Richard, Olivier, Bender, Hugo, Douhard, Bastien, Moussa, Alain, Merckling, Clement, Witters, Liesbeth, Vandervorst, Wilfried, Loo, Roger, Caymax, Matty, Heyns, Marc
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container_start_page 239
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container_volume 41
creator Vincent, Benjamin
Gencarelli, Federica
Lin, Denis
Nyns, Laura
Richard, Olivier
Bender, Hugo
Douhard, Bastien
Moussa, Alain
Merckling, Clement
Witters, Liesbeth
Vandervorst, Wilfried
Loo, Roger
Caymax, Matty
Heyns, Marc
description Three advanced architectures for ultimate progress in Ge p-Metal Oxide Semiconductor Field Effect Transistors are discussed in this paper. Different routes for stress implementations in Ge channels, either biaxial or uniaxial, are proposed by advanced selective Chemical Vapor Deposition techniques. Selective SiGe Strained Relaxed Buffer growth in Shallow Trench Isolation is first discussed to implement biaxial compressive strained Ge Quantum Wells on top of it. Next, innovative GeSn chemical vapor deposition technique is described in order to build either uniaxial strained Ge channel with GeSn Source/Drain stressors or compressively biaxial strained GeSn Quantum Well channels on Ge buffer layers.
doi_str_mv 10.1149/1.3633304
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title Biaxial and Uniaxial Compressive Stress Implemented in Ge(Sn) pMOSFET Channels by Advanced Reduced Pressure Chemical Vapor Deposition Developments
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