Temperature induced A1 to B2 structural and magnetic transition in FeRh thin film

Abstract The Fe-Rh system offers a diverse range of magnetic phases, making it promising for energy-efficient magnetic devices. A periodic, chemically homogeneous, isotope-periodic n FeRh/ 57 FeRh multilayer system was deposited on a MgO(100) substrate via molecular beam epitaxy, and annealed at various temperatures and durations. To gain deeper insights into the A1 to B2 structural and magnetic transitions, non-destructive techniques such as x-ray diffraction, conversion electron Mössbauer spectroscopy, and neutron reflectometry were employed. The qualitative and quantitative analysis revealed insights into the underlying mechanisms of the transformation from the A1 phase to the B2 phase were described, including the variation of the lattice parameters, grain sizes and hyperfine parameters. Neutron reflectometry revealed no significant long-range diffusion during the phase transition, suggesting a local interchange of neighbouring atoms.

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Publication Details

Journal
Materials Research Express
Published
2024-08-01
DOI
https://doi.org/10.1088/2053-1591/ad6f71
Citations
2
Primary Topic
Magnetic properties of thin films
Type
article
Field-Weighted Citation Impact
0.68
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article

Temperature induced A1 to B2 structural and magnetic transition in FeRh thin film

Adrián Lengyel, D. G. Merkel, Maria Gracheva, D. L. Nagy et al.
2 citations
Materials Research Express
Magnetic properties of thin films
0.68
article

Temperature induced A1 to B2 structural and magnetic transition in FeRh thin film

Adrián Lengyel, D. G. Merkel, Maria Gracheva, D. L. Nagy, G. Radnóczi, Géza Hegedűs, Z.E. Horváth
article en
2 citations

Abstract

Abstract The Fe-Rh system offers a diverse range of magnetic phases, making it promising for energy-efficient magnetic devices. A periodic, chemically homogeneous, isotope-periodic n FeRh/ 57 FeRh multilayer system was deposited on a MgO(100) substrate via molecular beam epitaxy, and annealed at various temperatures and durations. To gain deeper insights into the A1 to B2 structural and magnetic transitions, non-destructive techniques such as x-ray diffraction, conversion electron Mössbauer spectroscopy, and neutron reflectometry were employed. The qualitative and quantitative analysis revealed insights into the underlying mechanisms of the transformation from the A1 phase to the B2 phase were described, including the variation of the lattice parameters, grain sizes and hyperfine parameters. Neutron reflectometry revealed no significant long-range diffusion during the phase transition, suggesting a local interchange of neighbouring atoms.

Materials Research ExpressVol. 11(8)
HUN-REN Wigner Research Centre for Physics (HU), HUN-REN Centre for Energy Research (HU)
Affordable and clean energy
Openalex Percentile: Top 32%
Magnetic properties of thin films
0.68
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