Mo4 Ce4 Al7 C3: A nanolamellar ferromagnetic Kondo lattice

Herein we show that Mo4 Ce4 Al7 C3, a recently discovered nanolamellar compound displaying mixed valence, combines Kondo lattice behavior with ferromagnetism. A sizeable magnetization is carried by 3p states of Al as evidenced by a strong x-ray magnetic circular dichroism signal at the K edge of alu...

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Veröffentlicht in:Physical review. B 2020-10, Vol.102 (15), p.1
Hauptverfasser: Barbier, Maxime, Wilhelm, Fabrice, Pinek, Damir, Furuta, Kanji, Ito, Takahiro, Kim, Youngsoo, Magnier, Maëlys, Braithwaite, Daniel, Vališka, Michal, Opagiste, Christine, Barsoum, Michel W, Ohresser, Philippe, Otero, Edwige, Fèvre, Patrick Le, Bertran, François, Garbarino, Gaston, Rogalev, Andrei, Ouisse, Thierry
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container_issue 15
container_start_page 1
container_title Physical review. B
container_volume 102
creator Barbier, Maxime
Wilhelm, Fabrice
Pinek, Damir
Furuta, Kanji
Ito, Takahiro
Kim, Youngsoo
Magnier, Maëlys
Braithwaite, Daniel
Vališka, Michal
Opagiste, Christine
Barsoum, Michel W
Ohresser, Philippe
Otero, Edwige
Fèvre, Patrick Le
Bertran, François
Garbarino, Gaston
Rogalev, Andrei
Ouisse, Thierry
description Herein we show that Mo4 Ce4 Al7 C3, a recently discovered nanolamellar compound displaying mixed valence, combines Kondo lattice behavior with ferromagnetism. A sizeable magnetization is carried by 3p states of Al as evidenced by a strong x-ray magnetic circular dichroism signal at the K edge of aluminum, whereas no detectable signal was observed at the K edge of carbon and L2,3 edges of molybdenum. These results point out that the ferromagnetic behavior originates in the Ce atoms with 4f1 electronic configuration lying within the Al planes. The evolution with pressure of the mixed valence of Ce atoms in the Mo-C planes determined via Ce L3 x-ray-absorption spectra along with the magnetoresistance measurements across the ferromagnetic transition unambiguously reveal a Kondo behavior. Angle-resolved photoemission spectroscopy and density functional theory confirm a certain degree of Ce 4f electron delocalization. More generally, conduction electrons are not restricted to lie in the MoC planes but are also delocalized in the Al planes.
doi_str_mv 10.1103/PhysRevB.102.155121
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source American Physical Society Journals
subjects Absorption spectra
Aluminum
Conduction electrons
Density functional theory
Dichroism
Ferromagnetism
Magnetoresistance
Magnetoresistivity
Molybdenum
Photoelectric emission
Spectrum analysis
title Mo4 Ce4 Al7 C3: A nanolamellar ferromagnetic Kondo lattice
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