Hydrothermal growth of upright-standing ZnO sheet microcrystals

•Upright-standing ZnO sheet microcrystals were hydrothermally fabricated.•The ZnO sheets were prepared with sodium oxalate at 70°C without any surfactant.•The preferable adsorption of oxalate anions causes the formation of ZnO sheet.•The continuous growth in six directions leads to the formation of...

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Veröffentlicht in:Materials science & engineering. B, Solid-state materials for advanced technology Solid-state materials for advanced technology, 2014-08, Vol.186, p.68-72
Hauptverfasser: Shi, Ruixia, Yang, Ping, Dong, Xiaobin, Jia, Changchao, Li, Jia
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container_title Materials science & engineering. B, Solid-state materials for advanced technology
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creator Shi, Ruixia
Yang, Ping
Dong, Xiaobin
Jia, Changchao
Li, Jia
description •Upright-standing ZnO sheet microcrystals were hydrothermally fabricated.•The ZnO sheets were prepared with sodium oxalate at 70°C without any surfactant.•The preferable adsorption of oxalate anions causes the formation of ZnO sheet.•The continuous growth in six directions leads to the formation of hexagonal sheets. Large-scale upright-standing ZnO sheet microcrystals were fabricated on Zn substrate using sodium oxalate as structure-directing agent by a hydrothermal method at low temperature (70°C) without any surfactant. The sheets are about 3–5μm in dimension and 100–300nm in thickness. The strong and narrow diffraction peaks of ZnO indicate that the sample has a good crystallinity and size. The morphology of sheet-like ZnO varied with the concentrations of sodium oxalate and reaction time. The sheet-like ZnO would transform into rod-like ones when sodium oxalate was substituted by equivalent sodium acetate. The formation of sheet-like ZnO is attributed to the preferable adsorption of oxalate anions on (0001) face of ZnO, which inhibits the intrinsic growth of ZnO. Additionally, the continuous growth in six (01−10) directions that have the lowest surface energy leads to the formation of hexagonal sheets.
doi_str_mv 10.1016/j.mseb.2014.03.011
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subjects Anions
Formations
Hydrothermal method
Materials science
Microcrystals
Oxalates
Sheet microcrystals
Sodium
Surface energy
Upright-standing ZnO
Zinc oxide
Zn substrate
title Hydrothermal growth of upright-standing ZnO sheet microcrystals
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