Abstract
In antiferromagnetic (AFM) nanoparticles, an additional ferromagnetic phase forms and leads to the appearance in AFM nanoparticles of a noncompensated magnetic moment and the magnetic properties typical of common FM nanoparticles. In this work, to reveal the regularities and differences of the dynamic magnetization switching in FM and AFM nanoparticles, the typical representatives of such materials are studied: CoFe2O4 and NiO nanoparticles with average sizes 6 and 8 nm, respectively. The high fields of the irreversible behavior of the magnetizations of these samples determine the necessity of using strong pulsed fields (amplitude to 130 kOe) to eliminate the effect of the partial hysteresis loop when studying the dynamic magnetic hysteresis. For both types of the samples, coercive force HC at the dynamic magnetization switching is markedly higher than HC at quasi-static conditions. HC increases as the pulse duration τP decreases and the maximum applied field H0 increases. The dependence of HC on field variation rate dH/dt = H0/2τP is a unambiguous function for CoFe2O4 nanoparticles, and it is precisely such a behavior is expected from a system of single-domain FM nanoparticles. At the same time, for AFM NiO nanoparticles, the coercive force is no longer an unambiguous function of dH/dt, and the value of applied field H0 influences more substantially. Such a difference in the behaviors of FM and AFM nanoparticles is caused by the interaction of the FM subsystem and the AFM “core” inside AFM nanoparticles. This circumstance should be taken into account when developing the theory of dynamic hysteresis of the AFM nanoparticles and also to take into account their practical application.
Similar content being viewed by others
REFERENCES
K. Nadeem, H. Krenn, T. Traussnig, R. Würschum, D. V. Szabo, and I. Letofsky-Papst, J. Appl. Phys. 111, 113911 (2012).
S. S. Yakushkin, A. A. Dubrovskiy, D. A. Balaev, K. A. Shaykhutdinov, G. A. Bukhtiyarova, and O. N. Martyanov, J. Appl. Phys. 111, 044312 (2012).
A. S. Kamzin, A. A. Valiullin, V. G. Semenov, H. Das, and N. Wakiya, Phys. Solid State 61, 1113 (2019).
M. Tadic, D. Nikolic, M. Panjan, and G. R. Blake, J. Alloys Compd. 647, 1061 (2015).
S. V. Stolyar, D. A. Balaev, V. P. Ladygina, A. I. Pankrats, R. N. Yaroslavtsev, D. A. Velikanov, and R. S. Iskhakov, JETP Lett. 111, 183 (2020).
R. H. Kodama and A. E. Berkowitz, Phys. Rev. B 59, 6321 (1999).
A. P. Safronov, I. V. Beketov, S. V. Komogortsev, G. V. Kurlyandskaya, A. I. Medvedev, D. V. Leiman, A. Larranaga, and S. M. Bhagat, AIP Adv. 3, 052135 (2013).
L. Neel, C. R. Acad. Sci. Paris 252, 4075 (1961).
Yu. L. Raikher and V. I. Stepanov, J. Exp. Theor. Phys. 107, 435 (2008).
A. A. Lepeshev, I. V. Karpov, A. V. Ushakov, D. A. Balaev, A. A. Krasikov, A. A. Dubrovskiy, D. A. Velikanov, and M. I. Petrov, J. Supercond. Nov. Magn. 30, 931 (2017).
S. A. Makhlouf, F. T. Parker, F. E. Spada, and A. E. Berkowitz, J. Appl. Phys. 81, 5561 (1997).
S. I. Popkov, A. A. Krasikov, A. A. Dubrovskiy, M. N. Volochaev, V. L. Kirillov, O. N. Martyanov, and D. A. Balaev, J. Appl. Phys. 126, 103904 (2019).
D. A. Balaev, A. A. Dubrovskiy, A. A. Krasikov, S. I. Popkov, A. D. Balaev, K. A. Shaikhutdinov, V. L. Kirillov, and O. N. Mart’yanov, Phys. Solid State 59, 1547 (2017).
S. A. Makhlouf, H. Al-Attar, and R. H. Kodama, Solid State Commun. 145, 1 (2008).
M. S. Seehra and A. Punnoose, Solid State Commun. 128, 299 (2003).
D. A. Balaev, A. A. Krasikov, S. V. Stolyar, R. S. Iskhakov, V. P. Ladygina, R. N. Yaroslavtsev, O. A. Bayukov, A. M. Vorotynov, M. N. Volochaev, and A. A. Dubrovskiy, Phys. Solid State 58, 1782 (2016).
I. S. Poperechny, Yu. L. Raikher, and V. I. Stepanov, Phys. Rev. B 82, 174423 (2010).
S. Poperechny and Yu. L. Raikher, Phys. B (Amsterdam, Neth.) 435, 58 (2014).
Y. P. Kalmykov, S. V. Titov, W. T. Coffey, M. Zarifakis, and W. J. Dowlin, Phys. Rev. B 99, 184414 (2019).
E. L. Verde, G. T. Landi, J. A. Gomes, M. H. Sousa, and A. F. Bakuzis, J. Appl. Phys. 111, 123902 (2012).
Y. Lv, Y. Yang, J. Fang, H. Zhang, E. Peng, X. Liu, W. Xiao, and J. Ding, RSC Adv. 5, 76764 (2015).
E. Garaio, O. Sandre, J.-M. Collantes, J. A. Garcia, S. Mornet, and F. Plazaola, Nanotechnology 26, 015704 (2015).
A. S. Kazmin, I. M. Obaidat, A. A. Valliulin, V. G. Semenov, I. A. Al-Omari, and C. Nayek, Tech. Phys. Lett. 45, 426 (2019).
N. A. Usov and Yu. B. Grebenshchikov, J. Appl. Phys. 106, 023917 (2009).
J. Carrey, B. Mehdaoui, and M. Respaud, J. Appl. Phys. 109, 083921 (2011).
A. M. Shutyi and D. I. Sementsov, Phys. Solid State 61, 1736 (2019).
A. M. Shutyi and D. I. Sementsov, J. Exp. Theor. Phys. 129, 248 (2019).
B. Ouari, S. Aktaou, and Y. P. Kalmykov, Phys. Rev. B 81, 024412 (2010).
B. Ouari and Y. P. Kalmykov, Phys. Rev. B 83, 064406 (2011).
A. S. Kamzin, A. A. Valiullin, H. Khurshid, Z. Nemati, H. Srikanth, and M. H. Phan, Phys. Solid State 60, 382 (2018).
A. S. Kamzin, D. S. Nikam, and S. H. Pawar, Phys. Solid State 59, 156 (2017).
C. Caizer and I. Hrianca, Eur. Phys. J. B 31, 391 (2003).
D. A. Balaev, I. S. Poperechny, A. A. Krasikov, K. A. Shaikhutdinov, A. A. Dubrovskiy, S. I. Popkov, A. D. Balaev, S. S. Yakushkin, G. A. Bukhtiyarova, O. N. Martyanov, and Yu. L. Raikher, J. Appl. Phys. 117, 063908 (2015).
S. I. Popkov, A. A. Krasikov, S. V. Semenov, A. A. Dubrovskii, S. S. Yakushkin, V. L. Kirillov, O. N. Mart’yanov, and D. A. Balaev, Phys. Solid State 62, 445 (2020).
D. A. Balaev, A. A. Krasikov, A. A. Dubrovskii, A. D. Balaev, S. I. Popkov, V. L. Kirillov, and O. N. Martyanov, J. Supercond. Nov. Magn. 32, 405 (2019).
D. A. Balaev, S. V. Semenov, A. A. Dubrovskii, A. A. Krasikov, S. I. Popkov, S. S. Yakushkin, V. L. Kirillov, and O. N. Mart’yanov, Phys. Solid State 62, 285 (2020).
A. A. Bykov, S. I. Popkov, A. M. Parshin, and A. A. Krasikov, J. Surf. Invest.: X-ray, Synchrotr. Neutron Tech. 9, 111 (2015).
G. Baldi, D. Bonacchi, C. Innocenti, G. Lorenzi, and C. Sangregorio, J. Magn. Magn. Mater. 311, 10 (2007).
A. McDannald, M. Staruch, and M. Jai, J. Appl. Phys. 112, 123916 (2012).
S. Baran, A. Hoser, B. Penc, and A. Szytula, Acta Polon. A 129, 35 (2016).
N. Rinaldi-Montes, P. Gorria, D. Martínez-Blanco, A. B. Fuertes, L. Fernández Barquín, I. Puente-Orench, and J. A. Blanco, Nanotechnology 26, 305705 (2015).
N. J. O. Silva, V. S. Amaral, A. Urtizberea, R. Bustamante, A. Millán, F. Palacio, E. Kampert, U. Zeitler, S. de Brion, O. Iglesias, and A. Labarta, Phys. Rev. B 84, 104427 (2011).
N. J. O. Silva, A. Millan, F. Palacio, E. Kampert, U. Zeitler, and V. S. Amaral, Phys. Rev. B 79, 104405 (2009).
S. I. Popkov, A. A. Krasikov, D. A. Velikanov, V. L. Kirillov, O. N. Martyanov, and D. A. Balaev, J. Magn. Magn. Mater. 483, 21 (2019).
D. A. Balaev, A. A. Krasikov, D. A. Velikanov, S. I. Popkov, N. V. Dubynin, S. V. Stolyar, V. P. Ladygina, and R. N. Yaroslavtsev, Phys. Solid State 60, 1973 (2018).
D. A. Balaev, A. A. Krasikov, A. A. Dubrovskiy, S. I. Popkov, S. V. Stolyar, R. S. Iskhakov, V. P. Ladygina, and R. N. Yaroslavtsev, J. Appl. Phys. 120, 183903 (2016).
Funding
This work was supported by the Russian Foundation for Basic Research, the Government of the Krasnoyarsk region, and the Krasnoyarsk Regional Foundation for Science, project no. 18-42-240012: “Magnetization switching of magnetic nanoparticles in strong pulsed magnetic fields is a new approach to studying the dynamic effects related to the processes of magnetization of magnetic nanoparticles.”
Author information
Authors and Affiliations
Corresponding author
Ethics declarations
The authors declare that they have no conflicts of interest.
Additional information
Translated by Yu. Ryzhkov
Rights and permissions
About this article
Cite this article
Popkov, S.I., Krasikov, A.A., Semenov, S.V. et al. General Regularities and Differences in the Behavior of the Dynamic Magnetization Switching of Ferrimagnetic (CoFe2O4) and Antiferromagnetic (NiO) Nanoparticles. Phys. Solid State 62, 1518–1524 (2020). https://doi.org/10.1134/S1063783420090255
Received:
Revised:
Accepted:
Published:
Issue Date:
DOI: https://doi.org/10.1134/S1063783420090255