Static and dynamic magnetization control of extrinsic multiferroics by the converse magneto-photostrictive effect

Matthieu Liparo; Jean Philippe Jay; Matthieu Dubreuil; Gaëlle Simon; Alain Fessant; Walaa Jahjah; Yann Le Grand; Charles Sheppard; Aletta R.E. Prinsloo; Vincent Vlaminck; Vincent Castel; Loic Temdie-Kom; Guillaume Bourcin; David Spenato; David T. Dekadjevi

doi:10.1038/s42005-023-01479-4

Static and dynamic magnetization control of extrinsic multiferroics by the converse magneto-photostrictive effect

Matthieu Liparo, Jean Philippe Jay, Matthieu Dubreuil, Gaëlle Simon, Alain Fessant, Walaa Jahjah, Yann Le Grand, Charles Sheppard, Aletta R.E. Prinsloo, Vincent Vlaminck, Vincent Castel, Loic Temdie-Kom, Guillaume Bourcin, David Spenato, David T. Dekadjevi

Physics

Research output: Contribution to journal › Article › peer-review

Abstract

Using strain to control magnetic properties through anisotropy changes is a method to create functional materials with energy efficient applications. The strain can be inferred remotely by the light-induced non-thermal dimension change of materials named the photostrictive effect. Still, the control of dynamic magnetic properties via this effect is pursued. The need of a physical quantity to encompass and to describe anisotropic magnetization changes under the photostrictive effect is also remaining. Here, the photostrictive effect with visible light is used to engineer static and dynamic magnetic properties in a multiferroic material. A converse magneto-photostrictive coupling coefficient is also proposed as a physical quantity to assess anisotropic magnetization changes under this effect. These results provide a path towards understanding light-induced magnetization changes and a potential to be used in wireless approaches for the control of magnetic properties and tunable RF/microwave devices.

Original language	English
Article number	356
Journal	Communications Physics
Volume	6
Issue number	1
DOIs	https://doi.org/10.1038/s42005-023-01479-4
Publication status	Published - Dec 2023

ASJC Scopus subject areas

General Physics and Astronomy

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This output contributes to the following UN Sustainable Development Goals (SDGs)

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10.1038/s42005-023-01479-4

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Liparo, M., Jay, J. P., Dubreuil, M., Simon, G., Fessant, A., Jahjah, W., Le Grand, Y., Sheppard, C., Prinsloo, A. R. E., Vlaminck, V., Castel, V., Temdie-Kom, L., Bourcin, G., Spenato, D., & Dekadjevi, D. T. (2023). Static and dynamic magnetization control of extrinsic multiferroics by the converse magneto-photostrictive effect. Communications Physics, 6(1), Article 356. https://doi.org/10.1038/s42005-023-01479-4

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title = "Static and dynamic magnetization control of extrinsic multiferroics by the converse magneto-photostrictive effect",

abstract = "Using strain to control magnetic properties through anisotropy changes is a method to create functional materials with energy efficient applications. The strain can be inferred remotely by the light-induced non-thermal dimension change of materials named the photostrictive effect. Still, the control of dynamic magnetic properties via this effect is pursued. The need of a physical quantity to encompass and to describe anisotropic magnetization changes under the photostrictive effect is also remaining. Here, the photostrictive effect with visible light is used to engineer static and dynamic magnetic properties in a multiferroic material. A converse magneto-photostrictive coupling coefficient is also proposed as a physical quantity to assess anisotropic magnetization changes under this effect. These results provide a path towards understanding light-induced magnetization changes and a potential to be used in wireless approaches for the control of magnetic properties and tunable RF/microwave devices.",

author = "Matthieu Liparo and Jay, {Jean Philippe} and Matthieu Dubreuil and Ga{\"e}lle Simon and Alain Fessant and Walaa Jahjah and {Le Grand}, Yann and Charles Sheppard and Prinsloo, {Aletta R.E.} and Vincent Vlaminck and Vincent Castel and Loic Temdie-Kom and Guillaume Bourcin and David Spenato and Dekadjevi, {David T.}",

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Liparo, M, Jay, JP, Dubreuil, M, Simon, G, Fessant, A, Jahjah, W, Le Grand, Y, Sheppard, C , Prinsloo, ARE, Vlaminck, V, Castel, V, Temdie-Kom, L, Bourcin, G, Spenato, D & Dekadjevi, DT 2023, 'Static and dynamic magnetization control of extrinsic multiferroics by the converse magneto-photostrictive effect', Communications Physics, vol. 6, no. 1, 356. https://doi.org/10.1038/s42005-023-01479-4

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T1 - Static and dynamic magnetization control of extrinsic multiferroics by the converse magneto-photostrictive effect

AU - Liparo, Matthieu

AU - Jay, Jean Philippe

AU - Dubreuil, Matthieu

AU - Simon, Gaëlle

AU - Fessant, Alain

AU - Jahjah, Walaa

AU - Le Grand, Yann

AU - Sheppard, Charles

AU - Prinsloo, Aletta R.E.

AU - Vlaminck, Vincent

AU - Castel, Vincent

AU - Temdie-Kom, Loic

AU - Bourcin, Guillaume

AU - Spenato, David

AU - Dekadjevi, David T.

PY - 2023/12

Y1 - 2023/12

N2 - Using strain to control magnetic properties through anisotropy changes is a method to create functional materials with energy efficient applications. The strain can be inferred remotely by the light-induced non-thermal dimension change of materials named the photostrictive effect. Still, the control of dynamic magnetic properties via this effect is pursued. The need of a physical quantity to encompass and to describe anisotropic magnetization changes under the photostrictive effect is also remaining. Here, the photostrictive effect with visible light is used to engineer static and dynamic magnetic properties in a multiferroic material. A converse magneto-photostrictive coupling coefficient is also proposed as a physical quantity to assess anisotropic magnetization changes under this effect. These results provide a path towards understanding light-induced magnetization changes and a potential to be used in wireless approaches for the control of magnetic properties and tunable RF/microwave devices.

AB - Using strain to control magnetic properties through anisotropy changes is a method to create functional materials with energy efficient applications. The strain can be inferred remotely by the light-induced non-thermal dimension change of materials named the photostrictive effect. Still, the control of dynamic magnetic properties via this effect is pursued. The need of a physical quantity to encompass and to describe anisotropic magnetization changes under the photostrictive effect is also remaining. Here, the photostrictive effect with visible light is used to engineer static and dynamic magnetic properties in a multiferroic material. A converse magneto-photostrictive coupling coefficient is also proposed as a physical quantity to assess anisotropic magnetization changes under this effect. These results provide a path towards understanding light-induced magnetization changes and a potential to be used in wireless approaches for the control of magnetic properties and tunable RF/microwave devices.

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Static and dynamic magnetization control of extrinsic multiferroics by the converse magneto-photostrictive effect

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