Phonon and magnon excitations in Raman spectra of an epitaxial bismuth ferrite film

被引:0
|
作者
G. Khabiri
A. S. Anokhin
A. G. Razumnaya
Yu. I. Yuzyuk
I. Gueye
B. Carcan
H. Bouyanfif
J. Wolfman
C. Autret-Lambert
M. El Marssi
机构
[1] Southern Federal University,Laboratoire de Physique de la Matière Condensée (LPMC)
[2] Southern Scientific Center of the Russian Academy of Sciences,GREMAN UMR 7347
[3] Université de Picardie Jules Verne,undefined
[4] Université de Tours,undefined
[5] Fayoum University,undefined
来源
Physics of the Solid State | 2014年 / 56卷
关键词
Raman Spectrum; Reflec Tion High Energy Electron Diffraction; Brillouin Zone Boundary; Polarize Raman Spectrum; Magnon Excitation;
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摘要
An epitaxial film of bismuth ferrite BiFeO3 on a MgO(001) single-crystal substrate has been prepared by pulsed laser deposition using SrTiO3 and SrRuO3 buffer layers. At room temperature, the polarization characteristics of the Raman spectra of the BiFeO3 film under study suggest a monoclinic symmetry. The high-temperature (295–1100 K) investigations of the Raman spectra have been performed in the frequency range 20 cm−1 < ν < 1600 cm−1. Particular attention has been paid to the high-frequency region with a band observed at 610 cm−1, which corresponds to the maximum density of states of the magnon branch at the Brillouin zone boundary, and an intense band in the second-order Raman spectra with the maximum at ∼1250 cm−1, which corresponds to the density of states of two-magnon excitations. It has been found that the intensity of the band at ∼1250 cm−1 decreases linearly with an increase in the temperature and, above 650 K, this band is absent. The extrapolation of the temperature dependence of the integrated intensity of the band at 1250 cm−1 suggests that this film undergoes an antiferromagnetic phase transition at a temperature of ∼670 K.
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页码:2507 / 2513
页数:6
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