In-situ wafer bowing measurements of GaN grown on Si (111) substrate by reflectivity mapping in metal organic chemical vapor deposition system

In this work, the wafer bowing during growth can be in-situ measured by a reflectivity mapping method in the 3 2 Thomas Swan close coupled showerhead metal organic chemical vapor deposition (MOCVD) system. The reflectivity mapping method is usually used to measure the film thickness and growth rate....

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Veröffentlicht in:Chinese physics B 2015-09, Vol.24 (9), p.96103-1-096103-5
Hauptverfasser: Yang, Yi-Bin, Liu, Ming-Gang, Chen, Wei-Jie, Han, Xiao-Biao, Chen, Jie, Lin, Xiu-Qi, Lin, Jia-Li, Luo, Hui, Liao, Qiang, Zang, Wen-Jie, Chen, Yin-Song, Qiu, Yun-Ling, Wu, Zhi-Sheng, Liu, Yang, Zhang, Bai-Jun
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container_end_page 1-096103-5
container_issue 9
container_start_page 96103
container_title Chinese physics B
container_volume 24
creator Yang, Yi-Bin
Liu, Ming-Gang
Chen, Wei-Jie
Han, Xiao-Biao
Chen, Jie
Lin, Xiu-Qi
Lin, Jia-Li
Luo, Hui
Liao, Qiang
Zang, Wen-Jie
Chen, Yin-Song
Qiu, Yun-Ling
Wu, Zhi-Sheng
Liu, Yang
Zhang, Bai-Jun
description In this work, the wafer bowing during growth can be in-situ measured by a reflectivity mapping method in the 3 2 Thomas Swan close coupled showerhead metal organic chemical vapor deposition (MOCVD) system. The reflectivity mapping method is usually used to measure the film thickness and growth rate. The wafer bowing caused by stresses (tensile and compressive) during the epitaxial growth leads to a temperature variation at different positions on the wafer, and the lower growth temperature leads to a faster growth rate and vice versa. Therefore, the wafer bowing can be measured by analyzing the discrepancy of growth rates at different positions on the wafer. Furthermore, the wafer bowings were confirmed by the ex-situ wafer bowing measurement. High-resistivity and low-resistivity Si substrates were used for epitaxial growth. In comparison with low-resistivity Si substrate, GaN grown on high-resistivity substrate shows a larger wafer bowing caused by the highly compressive stress introduced by compositionally graded AlGaN buffer layer. This transition of wafer bowing can be clearly in-situ measured by using the reflectivity mapping method.
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This transition of wafer bowing can be clearly in-situ measured by using the reflectivity mapping method.</abstract><doi>10.1088/1674-1056/24/9/096103</doi></addata></record>
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source IOP Publishing Journals
subjects Bowing
Compressive properties
Epitaxial growth
Gallium nitrides
Mapping
Reflectivity
Silicon substrates
Wafers
title In-situ wafer bowing measurements of GaN grown on Si (111) substrate by reflectivity mapping in metal organic chemical vapor deposition system
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