Josten, Nicolas; Miroshkina, Olga; Acet, Mehmet; Gruner, Markus; Farle, Michael:
Annealing time, temperature, and field dependence of pinned magnetic moments in the collinear antiferromagnet PdMn
In: Physical Review B, Vol. 108 (2023), No. 6, Article 064417
2023article/chapter in journalOA Hybrid
Physics (incl. Astronomy)Faculty of Physics » Experimental PhysicsScientific institutes » Center for Nanointegration Duisburg-Essen (CENIDE)
Related: 1 publication(s)
Title in English:
Annealing time, temperature, and field dependence of pinned magnetic moments in the collinear antiferromagnet PdMn
Author:
Josten, NicolasUDE
LSF ID
61435
ORCID
0009-0005-8543-8603ORCID iD
Other
connected with university
corresponding author
;
Miroshkina, OlgaUDE
LSF ID
61286
ORCID
0000-0003-2225-8726ORCID iD
Other
connected with university
;
Acet, MehmetUDE
LSF ID
2917
ORCID
0000-0003-3601-1601ORCID iD
Other
connected with university
;
Gruner, MarkusUDE
GND
128899808
LSF ID
10281
ORCID
0000-0002-2306-1258ORCID iD
Other
connected with university
;
Farle, MichaelUDE
GND
1029383219
LSF ID
3560
ORCID
0000-0002-1864-3261ORCID iD
Other
connected with university
Year of publication:
2023
Open Access?:
OA Hybrid
Web of Science ID
Web of Science ID
Scopus ID
Language of text:
English
Type of resource:
Text

Abstract in English:

Annealing the collinear antiferromagnet PdMn with excess Pd in a magnetic field produces strongly pinned magnetic moments in the annealing field direction. This behavior can be understood with the help of the magnetic-field-biased diffusion model. Here, the magnetic field creates an energy difference between the two possible occupations of the antiferromagnetic Mn-sublattices by the Pd-excess atoms. This, mediated by diffusion, leads to an imbalance in the amount of the Pd-excess atoms in these sublattices and, subsequently, to an imbalance in the total magnetization of the sublattices. We investigate this effect's dependence on the annealing field, time, and temperature. The results are then compared to the results of the magnetic-field-biased diffusion model, which gives good agreement.