Interface structures of inclined ZnO thin film on (0 1 1)-MgO substrate with bulk-like optical properties

Combining different phase structure materials with unique properties to design novel devices plays a significant role in the development of modern electronics. Here, we explore the characteristics of this type of complex interface and epitaxy structures based on the coupling between hexagonal ZnO fi...

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Veröffentlicht in:Applied surface science 2020-04, Vol.509 (C)
Hauptverfasser: Yuan, Xuebin, Zhou, Hua, Wang, Hui-Qiong, Wang, Xiao-Dan, Geng, Wei, Zhan, Huahan, Kisslinger, Kim, Zhang, Lihua, Xu, Mingchun, Chen, Quark Y., Kang, Junyong
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container_issue C
container_start_page
container_title Applied surface science
container_volume 509
creator Yuan, Xuebin
Zhou, Hua
Wang, Hui-Qiong
Wang, Xiao-Dan
Geng, Wei
Zhan, Huahan
Kisslinger, Kim
Zhang, Lihua
Xu, Mingchun
Chen, Quark Y.
Kang, Junyong
description Combining different phase structure materials with unique properties to design novel devices plays a significant role in the development of modern electronics. Here, we explore the characteristics of this type of complex interface and epitaxy structures based on the coupling between hexagonal ZnO film and cubic MgO substrate. The ZnO film was prepared by the molecular beam epitaxy technique on the MgO (0 1 1) substrate. The analysis results from the in situ reflection high energy electron diffraction patterns, X-ray diffraction (XRD)-pole figures and high resolution transmission electron microscopy images demonstrate that the film exhibits two-fold symmetry domains with a growth direction deviated from c-axis at about 31º along the [0 1 0] MgO or [0 $\bar{1}$ 0] MgO azimuth. Despite the intertwined diffusion from Zn and Mg atoms in the interface, which is the possible origin of a blue shift of about 0.083 eV in the Photoluminescence (PL) spectrum, the inclined film shows a full width at half maximum value that is close to the reported value from the high quality film. Finally, this work hopefully provides useful insights to the design and exploration of the novel optoelectronic devices that involve the integration of materials with different structure and different properties.
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subjects inclined growth
interface structure
MgO substrate
NANOSCIENCE AND NANOTECHNOLOGY
optical property
ZnO film
title Interface structures of inclined ZnO thin film on (0 1 1)-MgO substrate with bulk-like optical properties
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