Analyzing the restructure of ultra-low energy Boron implanted Si(110) with cold temperature by nonlinear optics

碩士 === 國立成功大學 === 物理學系 === 104 === The further scale down in device is the trend of semiconductor fabrication and this result approaches to the need of nanotechnology industry. The most critical problem in the yield of the nano-device fabrication is how to confirm the recover of the ultrathin shallo...

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Main Authors: Fu-YingLee, 李阜穎
Other Authors: Kuang-Yao Lo
Format: Others
Language:en_US
Published: 2016
Online Access:http://ndltd.ncl.edu.tw/handle/3w2e4r
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spelling ndltd-TW-104NCKU51980112019-05-15T22:34:38Z http://ndltd.ncl.edu.tw/handle/3w2e4r Analyzing the restructure of ultra-low energy Boron implanted Si(110) with cold temperature by nonlinear optics 以非線性光學分析超低能量佈植硼之低溫Si(110)之重建 Fu-YingLee 李阜穎 碩士 國立成功大學 物理學系 104 The further scale down in device is the trend of semiconductor fabrication and this result approaches to the need of nanotechnology industry. The most critical problem in the yield of the nano-device fabrication is how to confirm the recover of the ultrathin shallow junction, especially for the quality and electrical properties. In this work, we present a nonlinear optical method to inspect the degree of recrystallization and activation of these ultrathin implanted Si(110), and compare the effect of cold substrate used in the implanted process. Reflective second harmonic generation (RSHG) has sensitivity on the surface polar structure to inspect the degree of recrystallization and activation by examining the amplitude of 2m symmetrical pattern and constant value in RSHG. UV Raman can observe the amorphous condition of implanted Si(110) via annealing. Rapid thermal annealing (RTA), laser annealing, and related parameters in these annealing treatments were performed in this work to distinguish the situation of dopant diffusion, recrystallization and activation for the implanted Si(110) with different substrate temperature implantation. The usage of cold substrate provides a cold environment to suppress the energy of bombard B atoms in the surface region. The bombarded surface region would be more amorphous in the case of the cold substrate. The advantage of the usage of cold substrate is to easily activate the implanted region with lower thermal budget. Due to the recrystallization of implanted Si happens from α/c interface. Obvious α/c interface in the case of cold substrate can improve the quality of the recovered implanted Si(110). Before usage the nonlinear optical way to inspect the quality of ultrathin shallow junction, implantation with ultra-high dose is used to apply on the fabrication of nano-device. It is critical to recover the ultrathin shallow junction with high dose in the post-annealing treatment. Through the non-destroyed nonlinear optical way, more detailed condition of implantation and post-annealing can be controlled and further improve the optima condition of ultrathin shallow junction. Kuang-Yao Lo 羅光耀 2016 學位論文 ; thesis 73 en_US
collection NDLTD
language en_US
format Others
sources NDLTD
description 碩士 === 國立成功大學 === 物理學系 === 104 === The further scale down in device is the trend of semiconductor fabrication and this result approaches to the need of nanotechnology industry. The most critical problem in the yield of the nano-device fabrication is how to confirm the recover of the ultrathin shallow junction, especially for the quality and electrical properties. In this work, we present a nonlinear optical method to inspect the degree of recrystallization and activation of these ultrathin implanted Si(110), and compare the effect of cold substrate used in the implanted process. Reflective second harmonic generation (RSHG) has sensitivity on the surface polar structure to inspect the degree of recrystallization and activation by examining the amplitude of 2m symmetrical pattern and constant value in RSHG. UV Raman can observe the amorphous condition of implanted Si(110) via annealing. Rapid thermal annealing (RTA), laser annealing, and related parameters in these annealing treatments were performed in this work to distinguish the situation of dopant diffusion, recrystallization and activation for the implanted Si(110) with different substrate temperature implantation. The usage of cold substrate provides a cold environment to suppress the energy of bombard B atoms in the surface region. The bombarded surface region would be more amorphous in the case of the cold substrate. The advantage of the usage of cold substrate is to easily activate the implanted region with lower thermal budget. Due to the recrystallization of implanted Si happens from α/c interface. Obvious α/c interface in the case of cold substrate can improve the quality of the recovered implanted Si(110). Before usage the nonlinear optical way to inspect the quality of ultrathin shallow junction, implantation with ultra-high dose is used to apply on the fabrication of nano-device. It is critical to recover the ultrathin shallow junction with high dose in the post-annealing treatment. Through the non-destroyed nonlinear optical way, more detailed condition of implantation and post-annealing can be controlled and further improve the optima condition of ultrathin shallow junction.
author2 Kuang-Yao Lo
author_facet Kuang-Yao Lo
Fu-YingLee
李阜穎
author Fu-YingLee
李阜穎
spellingShingle Fu-YingLee
李阜穎
Analyzing the restructure of ultra-low energy Boron implanted Si(110) with cold temperature by nonlinear optics
author_sort Fu-YingLee
title Analyzing the restructure of ultra-low energy Boron implanted Si(110) with cold temperature by nonlinear optics
title_short Analyzing the restructure of ultra-low energy Boron implanted Si(110) with cold temperature by nonlinear optics
title_full Analyzing the restructure of ultra-low energy Boron implanted Si(110) with cold temperature by nonlinear optics
title_fullStr Analyzing the restructure of ultra-low energy Boron implanted Si(110) with cold temperature by nonlinear optics
title_full_unstemmed Analyzing the restructure of ultra-low energy Boron implanted Si(110) with cold temperature by nonlinear optics
title_sort analyzing the restructure of ultra-low energy boron implanted si(110) with cold temperature by nonlinear optics
publishDate 2016
url http://ndltd.ncl.edu.tw/handle/3w2e4r
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AT lǐfùyǐng yǐfēixiànxìngguāngxuéfēnxīchāodīnéngliàngbùzhípéngzhīdīwēnsi110zhīzhòngjiàn
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