Structural, optical properties and optical modelling of hydrothermal chemical growth derived ZnO nanowires

Hin On Chu; Quan Wang; Yong-jing Shi; Shi-geng Song; Wei-guo Liu; Shun Zhou; Des Gibson; Yahya Alajlani; Cheng Li

doi:10.1016/S1003-6326(19)65191-5

Structural, optical properties and optical modelling of hydrothermal chemical growth derived ZnO nanowires

Hin On Chu, Quan Wang, Yong-jing Shi^*, Shi-geng Song, Wei-guo Liu, Shun Zhou, Des Gibson, Yahya Alajlani, Cheng Li

^*Corresponding author for this work

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Abstract

ZnO nanowire films were produced at 90 °C using a hydrothermal chemical deposition method, and were characterised with scanning electron microscopy, optical transmission spectrometry and X-ray diffraction. The results showed that the optical band gap is 3.274–3.347 eV. Film porosity and microstructure can be controlled by adjusting the pH of the growth solution. ZnO nanowire films comprise a 2-layer structure as demonstrated by SEM analysis, showing different porosities for each layer. XRD analysis shows preferential growth in the (002) orientation. A comprehensive optical modelling method for nanostructured ZnO thin films was proposed, consisting of Bruggeman effective medium approximations, rough surface light scattering and O'Leary-Johnson-Lim models. Fitted optical transmission of nanostructured ZnO films agreed well with experimental data.

Original language	English
Pages (from-to)	191-199
Number of pages	9
Journal	Transactions of Nonferrous Metals Society of China
Volume	30
Issue number	1
DOIs	https://doi.org/10.1016/S1003-6326(19)65191-5
Publication status	Published - 21 Jan 2020

Keywords

ZnO
Nanowires
Hydrothermal synthesis
Optical modelling

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10.1016/S1003-6326(19)65191-5

2019 11 29 Chu et al Structural acceptedAccepted author manuscript, 1.08 MBLicence: CC BY-NC-ND

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title = "Structural, optical properties and optical modelling of hydrothermal chemical growth derived ZnO nanowires",

abstract = "ZnO nanowire films were produced at 90 °C using a hydrothermal chemical deposition method, and were characterised with scanning electron microscopy, optical transmission spectrometry and X-ray diffraction. The results showed that the optical band gap is 3.274–3.347 eV. Film porosity and microstructure can be controlled by adjusting the pH of the growth solution. ZnO nanowire films comprise a 2-layer structure as demonstrated by SEM analysis, showing different porosities for each layer. XRD analysis shows preferential growth in the (002) orientation. A comprehensive optical modelling method for nanostructured ZnO thin films was proposed, consisting of Bruggeman effective medium approximations, rough surface light scattering and O'Leary-Johnson-Lim models. Fitted optical transmission of nanostructured ZnO films agreed well with experimental data.",

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T1 - Structural, optical properties and optical modelling of hydrothermal chemical growth derived ZnO nanowires

AU - Chu, Hin On

AU - Wang, Quan

AU - Shi, Yong-jing

AU - Song, Shi-geng

AU - Liu, Wei-guo

AU - Zhou, Shun

AU - Gibson, Des

AU - Alajlani, Yahya

AU - Li, Cheng

PY - 2020/1/21

Y1 - 2020/1/21

N2 - ZnO nanowire films were produced at 90 °C using a hydrothermal chemical deposition method, and were characterised with scanning electron microscopy, optical transmission spectrometry and X-ray diffraction. The results showed that the optical band gap is 3.274–3.347 eV. Film porosity and microstructure can be controlled by adjusting the pH of the growth solution. ZnO nanowire films comprise a 2-layer structure as demonstrated by SEM analysis, showing different porosities for each layer. XRD analysis shows preferential growth in the (002) orientation. A comprehensive optical modelling method for nanostructured ZnO thin films was proposed, consisting of Bruggeman effective medium approximations, rough surface light scattering and O'Leary-Johnson-Lim models. Fitted optical transmission of nanostructured ZnO films agreed well with experimental data.

AB - ZnO nanowire films were produced at 90 °C using a hydrothermal chemical deposition method, and were characterised with scanning electron microscopy, optical transmission spectrometry and X-ray diffraction. The results showed that the optical band gap is 3.274–3.347 eV. Film porosity and microstructure can be controlled by adjusting the pH of the growth solution. ZnO nanowire films comprise a 2-layer structure as demonstrated by SEM analysis, showing different porosities for each layer. XRD analysis shows preferential growth in the (002) orientation. A comprehensive optical modelling method for nanostructured ZnO thin films was proposed, consisting of Bruggeman effective medium approximations, rough surface light scattering and O'Leary-Johnson-Lim models. Fitted optical transmission of nanostructured ZnO films agreed well with experimental data.

KW - ZnO

KW - Nanowires

KW - Hydrothermal synthesis

KW - Optical modelling

U2 - 10.1016/S1003-6326(19)65191-5

DO - 10.1016/S1003-6326(19)65191-5

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JO - Transactions of Nonferrous Metals Society of China

JF - Transactions of Nonferrous Metals Society of China

IS - 1

ER -

Structural, optical properties and optical modelling of hydrothermal chemical growth derived ZnO nanowires

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