Influence of Annealing on Magneto-Optical Properties of Fe\({}_{\mathbf{72.4}}\)Ti\({}_{\mathbf{5.4}}\)B\({}_{\mathbf{19.2}}\)O\({}_{\mathbf{3.0}}\) Nanocrystalline Films
N. N. Perova, E. A. Ganshina, I. M. Pripechenkov, D. M. Gridin, E. V. Harin, V. A. Tejetov, E. N. Sheftel, A. B. Granovsky
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Abstract
The results of the study on the magnetic properties of Fe\({}_{72.4}\)Ti\({}_{5.4}\)B\({}_{19.2}\)O\({}_{3.0}\) nanocrystalline films, subjected to annealing in vacuum at 200, 300, and 400\({}^{\circ}\)C, are presented. Films with a mixed (nanocrystalline \(+\) amorphous) structure, 0.52 \(\mu\)m thick, were obtained by magnetron deposition on glass substrates. Hysteresis loops were measured using a vibrating magnetometer, and the field and spectral dependences of the transverse Kerr effect (TKE) were determined. Magnetization reversal processes were visualized using a magneto-optical Kerr magnetometer. It was shown that the processes of partial crystallization of the initially amorphous phase and the redistribution of Ti and B within crystalline grains and grain boundaries, leading to the formation of new phases as a result of annealing, manifest themselves in a two-stage magnetization reversal process and in the modification of the TKE spectra.
退火对Fe \({}_{\mathbf{72.4}}\) Ti \({}_{\mathbf{5.4}}\) B \({}_{\mathbf{19.2}}\) O \({}_{\mathbf{3.0}}\)纳米晶薄膜磁光性能的影响
本文介绍了Fe \({}_{72.4}\) Ti \({}_{5.4}\) B \({}_{19.2}\) O \({}_{3.0}\)纳米晶薄膜在200、300和400 \({}^{\circ}\)℃真空退火后的磁性能研究结果。通过磁控管沉积,在玻璃衬底上获得了厚度为0.52 \(\mu\) m的混合(纳米晶\(+\)非晶)薄膜。用振动磁强计测量了磁滞回线,并确定了横向克尔效应(TKE)的场依赖性和谱依赖性。利用磁光克尔磁强计可视化磁化反转过程。结果表明,初始非晶相的部分结晶过程以及Ti和B在晶界和晶内的重新分布导致退火形成新相的过程表现为两阶段磁化逆转过程和TKE谱的修正。
期刊介绍:
Moscow University Physics Bulletin publishes original papers (reviews, articles, and brief communications) in the following fields of experimental and theoretical physics: theoretical and mathematical physics; physics of nuclei and elementary particles; radiophysics, electronics, acoustics; optics and spectroscopy; laser physics; condensed matter physics; chemical physics, physical kinetics, and plasma physics; biophysics and medical physics; astronomy, astrophysics, and cosmology; physics of the Earth’s, atmosphere, and hydrosphere.