Abstract

In order to improve the performance of ATO nanometer powder, using $SnCl_4·5H_2O, SbCl_3$ and $Eu_2O_3$ as raw materials, europium doped ATO non-powder was prepared by co-precipitation method. The precursor was examined by differential thermal gravimetric analyzer and the $Eu^{3+}$ doped ATO nano-powder was examined by XRD and SEM to characterize the crystal structure, particle size and morphology. Comparison was carried out on the ATO nano-powder with or without $Eu^{3+}$ doped. The results found that an appropriate $Eu^{3+}$ doping amount can slightly increase the powder resistance, but to reduce the particle size of the powder and the agglomeration of the powder. Comparing with ATO nano-powder, $Eu^{3+}$ doped ATO nano-powder had better performance.

Highlights

  • Antimony-doped Tin Oxide (ATO) is an essential member of transparent conductive oxides (Muller et al, 2009; Li et al, 2010)

  • ATO nano-particles have been synthesized by solid state reaction (Wang et al, 2009), co-precipitation (Kim et al, 2006) and hydrothermal methods (Jianrong and Gao, 2004)

  • Morphology of Eu3+ doped ATO nano-powder was characterized on a Scanning Electron Microscope (SEM) (JEOL, JSM 5600LV, Japan)

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Summary

INTRODUCTION

Antimony-doped Tin Oxide (ATO) is an essential member of transparent conductive oxides (Muller et al, 2009; Li et al, 2010). ATO has the advantage of chemically inert, mechanical hardness and heatresistant (Burgurd et al, 1998; Kim et al, 2001; Crrijakorel et al, 1992). ATO nano-particles have been synthesized by solid state reaction (Wang et al, 2009), co-precipitation (Kim et al, 2006) and hydrothermal methods (Jianrong and Gao, 2004). Research of Eu3+ doped ATO nano-powder is few. Eu3+ doped ATO nano-powder was prepared by chemical coprecipitation method. Influence of Eu3+ doping amount on ATO nano-powders performance was studied

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