Synthesis of monoclinic structure gallium oxide film on sapphire substrate by magnetron sputtering

Jian-xu Sun , Wei Mi , De-shuang Zhang , Zheng-chun Yang , Kai-liang Zhang , Ye-mei Han , Yu-jie Yuan , Jin-shi Zhao , Bo Li

Optoelectronics Letters ›› 2017, Vol. 13 ›› Issue (4) : 295 -298.

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Optoelectronics Letters ›› 2017, Vol. 13 ›› Issue (4) :295 -298. DOI: 10.1007/s11801-017-7065-y
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Synthesis of monoclinic structure gallium oxide film on sapphire substrate by magnetron sputtering
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Abstract

Gallium oxide (Ga2O3) films were deposited on singlecrystalline sapphire (0001) substrate by radio frequency (RF) magnetron sputtering technique in the temperature range of 300—500 °C. The microstructure of the β-Ga2O3 films were investigated in detail using X-ray diffractometer (XRD) and scanning electron microscope (SEM). The results show that the film prepared at 500 °C exhibits the best crystallinity with a monoclinic structure (β-Ga2O3). Structure analysis reveals a clear out-of-plane orientation of β-Ga2O3 (2̅01) ǁ Al2O3 (0001). The average transmittance of these films in the visible wavelength range exceeds 90%, and the optical band gap of the films varies from 4.68 eV to 4.94 eV which were measured by an ultraviolet-visible-near infrared (UV-vis-NIR) spectrophotometer. Therefore, it is hopeful that the β-Ga2O3 film can be used in the UV optoelectronic devices.

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Jian-xu Sun, Wei Mi, De-shuang Zhang, Zheng-chun Yang, Kai-liang Zhang, Ye-mei Han, Yu-jie Yuan, Jin-shi Zhao, Bo Li. Synthesis of monoclinic structure gallium oxide film on sapphire substrate by magnetron sputtering. Optoelectronics Letters, 2017, 13(4): 295-298 DOI:10.1007/s11801-017-7065-y

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References

[1]

Wager J. F., Keszler D. A., Presley R. E.. Science. 2003, 300: 1245

[2]

Zhou H., Si M., Alghamdi S., Guang Q., Yang L., Peide Ye D.. IEEE Electron Device Letters. 2017, 38: 103

[3]

Wu Q. H., Song J., Kang J., Dong Q. F., Wu S. T., Sun S. G.. Materials Letters. 2007, 61: 3679

[4]

Roy R., Hill V. G., Osborn E. F.. Journal of American Chemical Society. 1952, 74: 719

[5]

Pasquevich A. F., Uhrmacher M., Ziegeler L., Lieb K. P.. Physical Review B. 1993, 48: 10052

[6]

Baldini M., Albrecht M., Fiedler A., Irmscher K., Klimm D., Schewski R., Wagner G.. Journal of Materials Science. 2016, 51: 3650

[7]

Hosono H.. Thin Solid Films. 2007, 515: 6000

[8]

Orita M., Hiramatsu H., Ohta H., Hirano M., Hosono H.. Thin Solid Films. 2002, 411: 134

[9]

Chan C. H., Lin M. H., Chao L. C., Lee K. Y., Tien L. C., Ho C. H.. Journal of Physical Chemistry C. 2016, 120: 21983

[10]

Zhu K., Wang H., Xiao F., Xu F.. Journal of Materials Science: Materials in Electronics. 2017, 28: 7302

[11]

Orita M., Ohta H., Hirano M., Hosono H.. Applied Physics Letters. 2000, 77: 4166

[12]

Gollakota P., Dhawan A., Wellenius P., Lunardi L. M., Mutha J. F., Saripalli Y. N., Peng H.Y., Everitt H. O.. Applied Physics Letters. 2006, 88: 221906

[13]

Oshima T., Arai N., Suzuki N., Ohira S., Fujita S.. Thin Solid Films. 2008, 516: 5768

[14]

Kim H. W., Kim N. H.. Materials Science and Engineering: B. 2004, 110: 34

[15]

Kim H. W., Kim N. H.. Applied Surface Science. 2004, 230: 301

[16]

Kokubun Y., Miura K., Endo F., Nakagomi S.. Applied Physics Letters. 2007, 90: 031912

[17]

Xiao H. D., Ma H. L., Xue C.h. S.h., Zhuang H. Z., Ma J., Zong F. J., Zhang X. J.. Materials Chemistry & Physics. 2007, 101: 99

[18]

Hueso J. L., Espinós J. P., Caballero A., Cotrino J., González-Elipe A. R.. Carbon. 2007, 45: 89

[19]

Lv Y., Ma J., Mi W., Luan C., Zhu Z., Xiao H. D.. Vacuum. 2012, 86: 1850

[20]

Mills G., Li Z.G., Dan M.. Journal of Physical Chemistry. 1988, 92: 822

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