Suppression of transient enhanced diffusion in sub-micron patterned silicon template by dislocation loops formation

We investigate the evolution of two dimensional transient enhanced diffusion (TED) of phosphorus in sub-micron scale patterned silicon template. Samples doped with low dose phosphorus with and without high dose silicon self-implantation, were annealed for various durations. Dopant diffusion is probe...

Full description

Bibliographic Details
Main Authors: Kuan-Kan Hu, Ruey-Dar Chang, Wei Yen Woon
Format: Article
Language:English
Published: AIP Publishing LLC 2015-10-01
Series:AIP Advances
Online Access:http://dx.doi.org/10.1063/1.4934674
_version_ 1818116596400390144
author Kuan-Kan Hu
Ruey-Dar Chang
Wei Yen Woon
author_facet Kuan-Kan Hu
Ruey-Dar Chang
Wei Yen Woon
author_sort Kuan-Kan Hu
collection DOAJ
description We investigate the evolution of two dimensional transient enhanced diffusion (TED) of phosphorus in sub-micron scale patterned silicon template. Samples doped with low dose phosphorus with and without high dose silicon self-implantation, were annealed for various durations. Dopant diffusion is probed with plane-view scanning capacitance microscopy. The measurement revealed two phases of TED. Significant suppression in the second phase TED is observed for samples with high dose self-implantation. Transmission electron microscopy suggests the suppressed TED is related to the evolution of end of range defect formed around ion implantation sidewalls.
first_indexed 2024-12-11T04:25:02Z
format Article
id doaj.art-db0132bf3be44b20af47630c943a33e0
institution Directory Open Access Journal
issn 2158-3226
language English
last_indexed 2024-12-11T04:25:02Z
publishDate 2015-10-01
publisher AIP Publishing LLC
record_format Article
series AIP Advances
spelling doaj.art-db0132bf3be44b20af47630c943a33e02022-12-22T01:21:00ZengAIP Publishing LLCAIP Advances2158-32262015-10-01510107128107128-510.1063/1.4934674048510ADVSuppression of transient enhanced diffusion in sub-micron patterned silicon template by dislocation loops formationKuan-Kan Hu0Ruey-Dar Chang1Wei Yen Woon2Department of Physics, National Central University, Jungli, 32054, Taiwan, Republic of ChinaChang Gung University, Taoyuan, Taiwan 33302, Republic of ChinaDepartment of Physics, National Central University, Jungli, 32054, Taiwan, Republic of ChinaWe investigate the evolution of two dimensional transient enhanced diffusion (TED) of phosphorus in sub-micron scale patterned silicon template. Samples doped with low dose phosphorus with and without high dose silicon self-implantation, were annealed for various durations. Dopant diffusion is probed with plane-view scanning capacitance microscopy. The measurement revealed two phases of TED. Significant suppression in the second phase TED is observed for samples with high dose self-implantation. Transmission electron microscopy suggests the suppressed TED is related to the evolution of end of range defect formed around ion implantation sidewalls.http://dx.doi.org/10.1063/1.4934674
spellingShingle Kuan-Kan Hu
Ruey-Dar Chang
Wei Yen Woon
Suppression of transient enhanced diffusion in sub-micron patterned silicon template by dislocation loops formation
AIP Advances
title Suppression of transient enhanced diffusion in sub-micron patterned silicon template by dislocation loops formation
title_full Suppression of transient enhanced diffusion in sub-micron patterned silicon template by dislocation loops formation
title_fullStr Suppression of transient enhanced diffusion in sub-micron patterned silicon template by dislocation loops formation
title_full_unstemmed Suppression of transient enhanced diffusion in sub-micron patterned silicon template by dislocation loops formation
title_short Suppression of transient enhanced diffusion in sub-micron patterned silicon template by dislocation loops formation
title_sort suppression of transient enhanced diffusion in sub micron patterned silicon template by dislocation loops formation
url http://dx.doi.org/10.1063/1.4934674
work_keys_str_mv AT kuankanhu suppressionoftransientenhanceddiffusioninsubmicronpatternedsilicontemplatebydislocationloopsformation
AT rueydarchang suppressionoftransientenhanceddiffusioninsubmicronpatternedsilicontemplatebydislocationloopsformation
AT weiyenwoon suppressionoftransientenhanceddiffusioninsubmicronpatternedsilicontemplatebydislocationloopsformation