Home / Articles / Crystalline structure of 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions in the vicinity of the morphotropic phase boundary

Crystalline structure of 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions in the vicinity of the morphotropic phase boundary

, 
Polina A. Sklyar 2
Polina A. Sklyar
,  ,  , 
Dmitry V. Zheludkevich
, 
1 National Research University “Moscow Institute of Electronic Technology”, 1 Shokin Sq., Zelenograd, Moscow 124498, Russian Federation
2 National University of Science and Technology “MISIS”, 4-1 Leninsky Ave., Moscow 119049, Russian Federation
3 Scientific-Practical Materials Research Centre of the National Academy of Sciences of Belarus, 19 P. Brovki Str., Minsk 220072, Republic of Belarus
Published 12 December 2023
Communication , Volume 9, Issue 4, 193-200
1
Share
Cite this
GOST
 | 
Cite this
GOST
Silibin M. V. et al. Crystalline structure of 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions in the vicinity of the morphotropic phase boundary // Modern Electronic Materials. 2023. Vol. 9. No. 4. pp. 193-200.
GOST all authors (up to 50)
Silibin M. V., Sklyar P. A., Zhivulko V. D., Latushko S. I., Zheludkevich D. V., Karpinsky D. V. Crystalline structure of 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions in the vicinity of the morphotropic phase boundary // Modern Electronic Materials. 2023. Vol. 9. No. 4. pp. 193-200.
RIS
 | 
Cite this
RIS
TY - JOUR
DO - 10.3897/j.moem.9.4.116620
UR - https://moem.colab.ws/publications/10.3897/j.moem.9.4.116620
TI - Crystalline structure of 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions in the vicinity of the morphotropic phase boundary
T2 - Modern Electronic Materials
AU - Silibin, Maxim V.
AU - Sklyar, Polina A.
AU - Zhivulko, Vadim D.
AU - Latushko, Sergey I.
AU - Zheludkevich, Dmitry V.
AU - Karpinsky, Dmitry V.
PY - 2023
DA - 2023/12/12
PB - НИТУ МИСИС
SP - 193-200
IS - 4
VL - 9
ER -
BibTex
 | 
Cite this
BibTex (up to 50 authors)
@article{2023_Silibin,
author = {Maxim V. Silibin and Polina A. Sklyar and Vadim D. Zhivulko and Sergey I. Latushko and Dmitry V. Zheludkevich and Dmitry V. Karpinsky},
title = {Crystalline structure of 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions in the vicinity of the morphotropic phase boundary},
journal = {Modern Electronic Materials},
year = {2023},
volume = {9},
publisher = {НИТУ МИСИС},
month = {Dec},
url = {https://moem.colab.ws/publications/10.3897/j.moem.9.4.116620},
number = {4},
pages = {193--200},
doi = {10.3897/j.moem.9.4.116620}
}
MLA
Cite this
MLA
Silibin, Maxim V., et al. “Crystalline structure of 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions in the vicinity of the morphotropic phase boundary.” Modern Electronic Materials, vol. 9, no. 4, Dec. 2023, pp. 193-200. https://moem.colab.ws/publications/10.3897/j.moem.9.4.116620.
Views / Visits / Downloads
34 / 34 / 43

Keywords

bismuth ferrite
electron microscopy
morphotropic phase boundary
multiferroics
structural phase transitions
X-ray diffraction

Abstract

Complex transition metal oxides are distinguished for a close interrelation between their type of crystal structure and electrical and magnetic properties, thus determining their practical importance. Bismuth ferrite based solid solutions contain simultaneously both dipole electric and magnetic ordering thus expanding their potential applications as external impact sensors. The sensitivity of these compositions to external fields is largely dependent on their structural state. 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions (0 ≤ x ≤ 1) the compositions of which are close to the rhombohedral/cubic morphotropic phase boundary have metastable structures and are therefore promising functional materials. The crystal structure and morphology of 0.65BiFeO3–0.35Ba1-xSrxTiO3 solid solutions has been studied using X-ray diffraction, scanning electron microscopy, Raman spectroscopy and energy dispersive X-ray spectroscopy. The chemical substitution of barium ions for strontium ones has been found to reduce the magnitude of rhombohedral distortions and decrease the unit cell parameters for all the substituted compounds. Solid solutions with x ≥ 0,25 have single-phase structure and cubic unit cells, their grain size decreasing with an increase in the concentration of the substituting ions. The results of structural studies obtained using Raman spectroscopy suggest the presence of rhombohedral distortions in the structures of all the compositions studied. The results of structural studies have allowed identifying the sequence of changes in the phase state and lattice parameter of the compounds in the vicinity of the rhombohedral/cubic morphotropic phase boundary. The concentration ranges in which the compounds have single-phase and two-phase structures have been found. The concentration stability range of the polar rhombohedral phase has been corrected on the basis of the structural data obtained using local and microscopic methods.

References

1.
Pravallika B., Boya Palajonnala N., De Los Santos Valladares L., Kargin J., Kollu P.
Nanoscale Advances, 2023
2.
Catalan G., Scott J.F.
Advanced Materials, 2009
4.
Magnetoelectric and multiferroic media
Pyatakov A.P., Zvezdin A.K.
Physics-Uspekhi, 2012
5.
Chu Y., Martin L.W., Holcomb M.B., Ramesh R.
Materials Today, 2007
6.
Sando D., Barthélémy A., Bibes M.
Journal of Physics Condensed Matter, 2014
7.
Fischer P., Polomska M., Sosnowska I., Szymanski M.
Journal of Physics C Solid State Physics, 1980
8.
Phong P.T., Salazar-Kuri U., Van H.T., Khien N.V., Dang N.V., Tho P.T.
Journal of Alloys and Compounds, 2020
9.
Tho P.T., Clements E.M., Kim D.H., Tran N., Osofsky M.S., Phan M.H., Phan T.L., Lee B.W.
Journal of Alloys and Compounds, 2018
10.
Karpinsky D.V., Troyanchuk I.O., Tovar M., Sikolenko V., Efimov V., Efimova E., Shur V.Y., Kholkin A.L.
Journal of the American Ceramic Society, 2014
11.
Karpinsky D.V., Troyanchuk I.O., Sikolenko V., Efimov V., Efimova E., Willinger M., Salak A.N., Kholkin A.L.
Journal of Materials Science, 2014
12.
Khomchenko V.A., Troyanchuk I.O., Karpinsky D.V., Das S., Amaral V.S., Tovar M., Sikolenko V., Paixão J.A.
Journal of Applied Physics, 2012
13.
Kitagawa Y., Hiraoka Y., Honda T., Ishikura T., Nakamura H., Kimura T.
Nature Materials, 2010
14.
Singh A., Pandey V., Kotnala R.K., Pandey D.
Physical Review Letters, 2008
15.
López I., Castaldini A., Cavallini A., Nogales E., Méndez B., Piqueras J.
Journal Physics D: Applied Physics, 2014
17.
Ca N.X., Lee M.Y., Hong N.T., Ba D.N., Tho P.T., Dang N.V., Tran N., Lee B.W., Ha L.T., Hue L.T., Xuan C.T.
Journal of Alloys and Compounds, 2021
18.
Karpinsky D.V., Troyanchuk I.O., Trukhanov A.V., Willinger M., Khomchenko V.A., Kholkin A.L., Sikolenko V., Maniecki T., Maniukiewicz W., Dubkov S.V., Silibin M.V.
Materials Research Bulletin, 2019
19.
Pakalniškis A., Lukowiak A., Niaura G., Głuchowski P., Karpinsky D.V., Alikin D.O., Abramov A.S., Zhaludkevich A., Silibin M., Kholkin A.L., Skaudžius R., Strek W., Kareiva A.
Journal of Alloys and Compounds, 2020
20.
22.
Tang L., Zhou X., Habib M., Zou J., Yuan X., Zhang Y., Zhang D.
Ceramics International, 2023
23.
Kim S., Khanal G.P., Nam H., Fujii I., Ueno S., Moriyoshi C., Kuroiwa Y., Wada S.
Journal of Applied Physics, 2017
24.
Hlinka J., Pokorny J., Karimi S., Reaney I.M.
Physical Review B, 2011
26.
Hermet P., Goffinet M., Kreisel J., Ghosez P.
Physical Review B, 2007