Multiferroic and magnetoelectric materials-novel developments and perspectives

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Multiferroic and magnetoelectric materials-novel developments and perspectives

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dc.contributor.author Kleemann W. vi
dc.contributor.author Borisov P. vi
dc.contributor.author Bedanta S. vi
dc.contributor.author Shvartsman V.V. vi
dc.date.accessioned 2011-06-11T06:36:04Z
dc.date.available 2011-06-11T06:36:04Z
dc.date.issued 2010 vi
dc.identifier.citation Volume 57, Issue 10, Page 2228-2232 vi
dc.identifier.issn vi
dc.identifier.uri http://tainguyenso.vnu.edu.vn/jspui/handle/123456789/13973
dc.description.abstract Magnetoelectric (ME) materials are of utmost interest in view of both fundamental understanding and novel desirable applications. Despite its smallness, the linear ME effect has been shown to control spintronic devices very efficiently, e.g., by using the classic ME antiferromagnet Cr 2O3. Similar nano-engineering concepts exist also for type-I multiferroic single phase materials like BiFeO3 and BiMnO 3. Record high ME response has been realized in stress-strain coupled multiphase magnetoelectrics like PZT/FeBSiC composites, enabling applications in sensors. In type-II multiferroics, whose ferroelectricity is due to modulated magnetic ordering, the ME coupling is of fundamental interest. Higher-order ME response characterizes disordered systems, which extend the conventional multiferroic scenario toward ME multiglass (e.g., Sr1-xMn xTiO3). © 2010 IEEE. vi
dc.publisher IEEE Transactions on Ultrasonics, Ferroelectrics, and Frequency Control vi
dc.subject vi
dc.title Multiferroic and magnetoelectric materials-novel developments and perspectives vi
dc.type Article vi

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