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A Nanolaminated Magnetic Phase: Mn2GaC

Ingason, Arni Sigurdur (author)
Linköpings universitet,Tunnfilmsfysik,Tekniska högskolan
Mockute, Aurelija (author)
Linköpings universitet,Tunnfilmsfysik,Tekniska högskolan
Dahlqvist, Martin (author)
Linköpings universitet,Tunnfilmsfysik,Tekniska högskolan
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Magnus, F. (author)
Science Institute, University of Iceland, Reykjavik, Iceland
Olafsson, S. (author)
Science Institute, University of Iceland, Dunhaga 3, IS-107 Reykjavik, Iceland
Arnalds, U. (author)
Department of Physics, Uppsala University, Box 530, S-751 21 Uppsala, Sweden
Alling, Björn (author)
Linköpings universitet,Teoretisk Fysik,Tekniska högskolan
Abrikosov, Igor (author)
Linköpings universitet,Teoretisk Fysik,Tekniska högskolan
Hjorvarsson, B. (author)
Department of Physics, Uppsala University, Uppsala, Sweden
Persson, Per O Å (author)
Linköpings universitet,Tunnfilmsfysik,Tekniska högskolan
Rosén, Johanna (author)
Linköpings universitet,Tunnfilmsfysik,Tekniska högskolan
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 (creator_code:org_t)
2013-12-09
2014
English.
In: Materials Research Letters. - : Taylor & Francis. - 2166-3831. ; 2:2, s. 89-93
  • Journal article (peer-reviewed)
Abstract Subject headings
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  • Layered magnetic materials are fascinating from the point of view of fundamental science as well as applications. Discoveries such as giant magnetoresistance (GMR) in magnetic multilayers have revolutionized data storage and magnetic recording, and concurrently initiated the search for new layered magnetic materials. One group of inherently nanolaminated compounds are the so called Mn+1AXn (MAX) phases. Due to the large number of isostructural compositions, researchers are exploring the wide range of interesting properties, and not primarily functionalization through optimization of structural quality. Magnetic MAX phases have been discussed in the literature, though this is hitherto an unreported phenomenon. However, such materials would be highly interesting, based on the attractive and useful properties attained with layered magnetic materials to date. Here we present a new MAX phase, (Cr1–xMnx)2GeC, synthesized as thin film in heteroepitaxial form, showing single crystal material with unprecedented structural MAX phase quality. The material was identified using first-principles calculations to study stability of hypothetical MAX phases, in an eort to identify a potentially magnetic material. The theory predicts a variety of magnetic behavior depending on the Mn concentration and Cr/Mn atomic conguration within the sublattice. The analyzed thin films display a magnetic signal well above room temperature and with partly ferromagnetic ordering. These very promising results open up a field of new layered magnetic materials, with high potential for electronics and spintronics applications.

Keyword

MAX phases
sputtering
transmission electron microscopy (TEM)
ab initio calculation

Publication and Content Type

ref (subject category)
art (subject category)

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