SnO2 nanomicropheres were prepared via hydro-thermal method, then the structure and micromorphology were characterized by XRD and SEM. The photocatalytic degradation ability of microspheres was studied by ultraviolet absorption. The material was pure SnO2 nanomicrospheres with good crystallinity, uniform size, good dispersion, and strong photocatalytic degradation.
LiuS.L., LiH.L. and YanL., Synthesis, characterization and property of SnO2 micropheres, Journal of Shanxi University of Science and Technology31 (2013), 70–73, 78.
2.
YuJ.Y., Synthesis and morphology control of tin oxide, Dissertation for Master of East China University of Science and Technology2012.
3.
YangM.R., ChuS.Y. and ChangR.C., Synthesis and study of the SnO2 nanowires growth, Sensors and Actuators B122 (2007), 269–273.
4.
YeJ.F., ZhangH.J., YangR., LiX.G. and QiL.M., Morphology-controlled synthesis of SnO2 nanotubes by using 1D silica mesostructures as sacrificial templates and their applications in lithium-ion batteries, Small6 (2010), 296–306.
5.
ChenH.T., WuX.L., ZhangY.Y., ZhuJ., ChengY.C. and ChuP.K., A novel hydrothermal route to synthesize solid SnO2 nanospheres and their photoluminescence property, Applied Physics A97 (2009), 581–585.
6.
YangR., GuY.G.LiY.Q.,
ZhengJ. and LiX.G., Self-assembled 3-D flower-shaped SnO2 nanostructures with improved electrochemical performance for lithium storage, Acta Materialia58 (2010), 866–874.
7.
QinD., YanP., LiG.Z., XingJ. and AnY.K., Self-construction of SnO2 cubes based on aggration of nanorods, Materials Letters62 (2008), 2411–2414.
8.
ShiW.D., SongS.Y. and ZhangH., Hydrothermal synthetic strategies of inorganic semiconducting nanostructures, Chemical Society Reviews42 (2013), 5714–5743.
9.
DengD. and LeeJ.Y., Hollow core-shell mesospheres of crystalline SnO2 nanoparticle aggregates for high capacity Li+ ion storage, Chemistry of Materials20 (2008), 1841–1846.
10.
LinY.S., DuhJ.G. and HungM.H., Shell-by-shell synthesis and applications of carbon-coated SnO2 hollow nanospheres in lithium-ion battery, The Journal of Physical Chemistry C114 (2010), 13136–13141.
11.
WangY.J., TianJ.J., FeiC.B., LvL.L., LiuX.G., ZhaoZ.X. and CaoG.Z., Microwave-assisted synthesis of SnO2 nanosheets photoanodes for dye-sensitized solar cells, The Journal of Physical Chemistry C118 (2014), 25931–25938.
12.
WangX.F., QinH.W., ChenY.P. and HuJ.F., Sensing mechanism of SnO2(110)surface to CO: Density functional theory calculations, The Journal of Physical Chemistry C118 (2014), 28548–28561.
13.
ChengD.J., ZhangM.M., ChenJ.F., YangC.X., ZengX.F. and CaoD.P., Computer screening of dopants for the development of new SnO2-based transparent conducting oxides, The Journal of Physical Chemistry C118 (2014), 2037–2043.