Morphology control of ZnO bilayer structure by low-temperature hydrothermal process

Morphology control of ZnO bilayer structure films has been obtained via low-temperature hydrothermal process without any surfactant-assistance. ZnO bilayer structures including nanoflower layer on nanorod array structure, nanodendrite layer over nanorod array structure, and double nanorods layers st...

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Veröffentlicht in:Materials letters 2013-09, Vol.107, p.126-129
Hauptverfasser: Lou, Yanyan, Yuan, Shuai, Zhao, Yin, Hu, Pengfei, Wang, Zhuyi, Zhang, Meihong, Shi, Liyi
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container_end_page 129
container_issue
container_start_page 126
container_title Materials letters
container_volume 107
creator Lou, Yanyan
Yuan, Shuai
Zhao, Yin
Hu, Pengfei
Wang, Zhuyi
Zhang, Meihong
Shi, Liyi
description Morphology control of ZnO bilayer structure films has been obtained via low-temperature hydrothermal process without any surfactant-assistance. ZnO bilayer structures including nanoflower layer on nanorod array structure, nanodendrite layer over nanorod array structure, and double nanorods layers structures were successfully fabricated by controlling the ammonia concentration in the initial hydrothermal solution and the immersing ways. The shape evolution of bilayer structure consisting of nanodendrite layer on the top and nanorod array at the bottom was elucidated by growing–renucleating mechanism. The higher ammonia concentration in the initial hydrothermal solution promotes the secondary nucleation and growth on the surface defects of backbones, resulting in the formation of needle-like nanorods in ZnO nanodendrite–nanorod structure. The ZnO film with nanodendrite–nanorod structure has better optical properties and lesser defects compared to that of nanoflower–nanorod structures. •Three different ZnO bilayer structures were fabricated.•Ammonia concentration is vital for the formation of different ZnO microstructures.•ZnO nanodendrite–nanorod structure has better optical properties.
doi_str_mv 10.1016/j.matlet.2013.05.072
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ZnO bilayer structures including nanoflower layer on nanorod array structure, nanodendrite layer over nanorod array structure, and double nanorods layers structures were successfully fabricated by controlling the ammonia concentration in the initial hydrothermal solution and the immersing ways. The shape evolution of bilayer structure consisting of nanodendrite layer on the top and nanorod array at the bottom was elucidated by growing–renucleating mechanism. The higher ammonia concentration in the initial hydrothermal solution promotes the secondary nucleation and growth on the surface defects of backbones, resulting in the formation of needle-like nanorods in ZnO nanodendrite–nanorod structure. 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ZnO bilayer structures including nanoflower layer on nanorod array structure, nanodendrite layer over nanorod array structure, and double nanorods layers structures were successfully fabricated by controlling the ammonia concentration in the initial hydrothermal solution and the immersing ways. The shape evolution of bilayer structure consisting of nanodendrite layer on the top and nanorod array at the bottom was elucidated by growing–renucleating mechanism. The higher ammonia concentration in the initial hydrothermal solution promotes the secondary nucleation and growth on the surface defects of backbones, resulting in the formation of needle-like nanorods in ZnO nanodendrite–nanorod structure. The ZnO film with nanodendrite–nanorod structure has better optical properties and lesser defects compared to that of nanoflower–nanorod structures. •Three different ZnO bilayer structures were fabricated.•Ammonia concentration is vital for the formation of different ZnO microstructures.•ZnO nanodendrite–nanorod structure has better optical properties.</abstract><pub>Elsevier B.V</pub><doi>10.1016/j.matlet.2013.05.072</doi><tpages>4</tpages></addata></record>
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subjects Ammonia
Arrays
Evolution
Morphology
Multilayer structure
nanorods
Nanostructure
Nucleation
optical properties
Semiconductors
Surface defects
Thin film
Zinc oxide
ZnO
title Morphology control of ZnO bilayer structure by low-temperature hydrothermal process
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