Authors
Julia A Mundy, Charles M Brooks, Megan E Holtz, Jarrett A Moyer, Hena Das, Alejandro F Rébola, John T Heron, James D Clarkson, Steven M Disseler, Zhiqi Liu, Alan Farhan, Rainer Held, Robert Hovden, Elliot Padgett, Qingyun Mao, Hanjong Paik, Rajiv Misra, Lena F Kourkoutis, Elke Arenholz, Andreas Scholl, Julie A Borchers, William D Ratcliff, Ramamoorthy Ramesh, Craig J Fennie, Peter Schiffer, David A Muller, Darrell G Schlom
Publication date
2016/9/22
Journal
Nature
Volume
537
Issue
7621
Pages
523-527
Publisher
Nature Publishing Group UK
Description
Materials that exhibit simultaneous order in their electric and magnetic ground states hold promise for use in next-generation memory devices in which electric fields control magnetism,. Such materials are exceedingly rare, however, owing to competing requirements for displacive ferroelectricity and magnetism. Despite the recent identification of several new multiferroic materials and magnetoelectric coupling mechanisms,,,,,,,,,,,, known single-phase multiferroics remain limited by antiferromagnetic or weak ferromagnetic alignments, by a lack of coupling between the order parameters, or by having properties that emerge only well below room temperature, precluding device applications. Here we present a methodology for constructing single-phase multiferroic materials in which ferroelectricity and strong magnetic ordering are coupled near room temperature. Starting with hexagonal LuFeO3—the geometric …
Total citations
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