Thermal Immune NiSi Technology for Nano-scale CMOSFETs

In this paper, thermally stable nickel silicide (NiSi) technologies are investigated for nano-scale CMOS technology. Co/TiN double capping layer is investigated first. Co/TiN double capping is highly efficient in retarding Ni diffusion during high temperature post silicidation annealing by forming C...

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Hauptverfasser: Hi-Deok Lee, Soon-Young Oh, Yong-Jin Kim, Won-Jae Lee, In-Shik Han, Ihl-Hyun Cho, Sung-Bo Hwang, Jong-Gun Lee
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creator Hi-Deok Lee
Soon-Young Oh
Yong-Jin Kim
Won-Jae Lee
In-Shik Han
Ihl-Hyun Cho
Sung-Bo Hwang
Jong-Gun Lee
description In this paper, thermally stable nickel silicide (NiSi) technologies are investigated for nano-scale CMOS technology. Co/TiN double capping layer is investigated first. Co/TiN double capping is highly efficient in retarding Ni diffusion during high temperature post silicidation annealing by forming CoNiSi ternary layer at the top region of silicide. Then, hydrogen plasma implantation before Ni/Co/TiN deposition is shown to be desirable for nano-scale CMOS technology
doi_str_mv 10.1109/IWJT.2006.220880
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subjects CMOS technology
CMOSFETs
Hydrogen
Nickel
Plasma stability
Plasma temperature
Silicidation
Silicides
Thermal stability
Tin
title Thermal Immune NiSi Technology for Nano-scale CMOSFETs
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