The Fe/BaTiO3 interface is a prototypical artificial multiferroic system displaying purely electronic magnetoelectric effects at room temperature. As magneto-electric coupling is essentially localized at the interface, the properties of the very first Fe layers in contact with BaTiO3 play a major role. In this paper, we investigate, by using X-ray photoemission spectroscopy and photoelectron diffraction, the in-situ growth, by molecular beam epitaxy, of ultrathin Fe films (7 monolayers) on a BaTiO3/SrTiO3(001) template. We found that growing the Fe films above room temperature (373 K) is essential in order to avoid island growth and obtain a continuous film. Post-annealing up to 473K improves the film crystallinity but prevents chemical in...
International audienceIntegration of epitaxial complex ferroelectric oxides such as BaTiO3 on semico...
DoctorWe have investigated magnetic and electronic properties of various Fe-based magnetic thin film...
The ferroelectric BaTiO3(001) ultrathin film (10 nm) was grown epitaxially on SrTiO3(001) substrate ...
The Fe/BaTiO3 interface is a prototypical artificial multiferroic system displaying purely electroni...
Interfacial multiferroics have recently emerged as a promising way to circumvent the lingering scarc...
The study of ultrathin oxide film as templates for magnetic nanostructures is presented. The ultrath...
Interfacial magnetoelectric coupling is a viable path to achieve electrical writing of magnetic info...
The structural, electronic and dielectric properties of high-quality ultrathin BaTiO3 films were inv...
Multiferroic materials exhibit simultaneously, magnetic and electric order. In a magnetoelectric com...
Combining various (multi-)ferroic materials into heterostructures is a promising route to enhance th...
The requirements of multifunctionality in thin-film systems have led to the discovery of unique phys...
The performance of complex oxide heterostructures depends primarily on the interfacial coupling of t...
© 2016 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim Multiferroic superlattices consisting of 15 doub...
Multiferroic materials possess two or more ferroic orders but have not been exploited in devices owi...
Combining various (multi-)ferroic materials into heterostructures is a promising route to enhance th...
International audienceIntegration of epitaxial complex ferroelectric oxides such as BaTiO3 on semico...
DoctorWe have investigated magnetic and electronic properties of various Fe-based magnetic thin film...
The ferroelectric BaTiO3(001) ultrathin film (10 nm) was grown epitaxially on SrTiO3(001) substrate ...
The Fe/BaTiO3 interface is a prototypical artificial multiferroic system displaying purely electroni...
Interfacial multiferroics have recently emerged as a promising way to circumvent the lingering scarc...
The study of ultrathin oxide film as templates for magnetic nanostructures is presented. The ultrath...
Interfacial magnetoelectric coupling is a viable path to achieve electrical writing of magnetic info...
The structural, electronic and dielectric properties of high-quality ultrathin BaTiO3 films were inv...
Multiferroic materials exhibit simultaneously, magnetic and electric order. In a magnetoelectric com...
Combining various (multi-)ferroic materials into heterostructures is a promising route to enhance th...
The requirements of multifunctionality in thin-film systems have led to the discovery of unique phys...
The performance of complex oxide heterostructures depends primarily on the interfacial coupling of t...
© 2016 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim Multiferroic superlattices consisting of 15 doub...
Multiferroic materials possess two or more ferroic orders but have not been exploited in devices owi...
Combining various (multi-)ferroic materials into heterostructures is a promising route to enhance th...
International audienceIntegration of epitaxial complex ferroelectric oxides such as BaTiO3 on semico...
DoctorWe have investigated magnetic and electronic properties of various Fe-based magnetic thin film...
The ferroelectric BaTiO3(001) ultrathin film (10 nm) was grown epitaxially on SrTiO3(001) substrate ...