4.6 Article

Influence of the magnetic sublattices in the double perovskite LaCaNiReO6

Journal

PHYSICAL REVIEW B
Volume 106, Issue 21, Pages -

Publisher

AMER PHYSICAL SOC
DOI: 10.1103/PhysRevB.106.214410

Keywords

-

Funding

  1. European Commission
  2. Swedish Research Council-VR [2014-6426, 2016-06955]
  3. Carl Tryggers Foundation for Scientific Research [CTS-18:272]
  4. Japan Society for the Promotion Science (JSPS) KAKENHI Grant [JP18H01863, JP20K21149]
  5. Swedish Research Council (VR) [2017-05078]
  6. Swedish Foundation for Strategic Research (SSF) within the Swedish national graduate school in neutron scattering (SwedNess)
  7. Area of AdvanceMaterial Sciences from Chalmers University of Technology
  8. Romanian UEFISCDI [PN-III-P4-ID-PCCF-2016-0112]
  9. Chalmers X-Ray and Neutron Initiatives (CHANS) grant
  10. European Union's Horizon 2020 research and innovation program under the Marie Sklodowska-Curie Grant [884104]
  11. Swedish Research Council -VR [2020-06409]
  12. Swiss National Science Foundation [206021-139082]
  13. Swedish Research Council [2020-06409] Funding Source: Swedish Research Council

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The magnetic phases of LaCaNiReO6 double perovskite were studied, revealing different magnetic regions and the evolution of interaction between Ni and Re magnetic sublattices.
The magnetism of double perovskites is a complex phenomenon, determined from intra- or interatomic magnetic moment interactions, and strongly influenced by geometry. We take advantage of the complementary length and timescales of the muon spin rotation, relaxation, and resonance (mu+SR) microscopic technique and bulk ac/dc magnetic susceptibility measurements to study the magnetic phases of the LaCaNiReO6 double perovskite. As a result, we are able to discern and report ferrimagnetic ordering below TC = 102 K and the formation of different magnetic domains above TC. Between TC < T < 270 K, the following two magnetic environments appear, a dense spin region and a static-dilute spin region. The paramagnetic state is obtained only above T > 270 K. An evolution of the interaction between Ni and Re magnetic sublattices, in this geometrically frustrated fcc perovskite structure, is revealed as a function of temperature through the critical behavior and thermal evolution of microscopic and macroscopic physical quantities.

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