Self-Amorphizing Gas Cluster Ion Beam Technology and Combination with Laser Spike Anneal for Highly Scaled Source Drain Junction

Shanghai(2006)

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摘要
High energy borane (B2H6) gas cluster ion beam (GCIB) successfully enables a sub-10 nm box-shaped dopant profile without channeling tail, and steep gradient (2.5 nm/dec) in lateral direction. pFET using GCIB source/drain extension shows superior suppression of short channel effects and reduces the dependency of drive current on gate overlap capacitance variation for scaled devices. Moreover, the perimeter leakage component in p+/n-well junction was reduced compared to the conventional co-implantation process with pre-amorphization, which might come from novel self-amorphization mechanism by energized clusters without foreign impurities such as Ge and F. For further scaled devices, GCIB can provide more efficient boron activation by laser spike annealing (LSA) while maintaining the scaled extension profile by combination with the reduced temperature spike RTA
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MOS integrated circuits,amorphisation,boron compounds,field effect transistors,ion implantation,laser beam annealing,leakage currents,rapid thermal annealing,semiconductor doping,MOS devices,boron activation,drive current,gate overlap capacitance,high energy borane gas cluster ion beam,highly scaled source drain junction,laser spike anneal,p+-n-well junction,pFET,perimeter leakage,rapid thermal annealing,self-amorphizing gas cluster ion beam technology,source-drain extension,sub-10 nm box-shaped dopant profile,ultrashallow junction,
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