Laterally Differentiated Polymorphs: a route to multifunctional nanostructures

Fuente: arXiv
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Main Authors: Lauer, Pete E., Hayashi, Kensuke, Kunai, Yuichiro, Wojewoda, Ondřej, Klíma, Jan, Pribytova, Ekaterina, Urbánek, Michal, Penn, Aubrey, Kikuchi, Takayuki, Ma, Renzhi, Sasaki, Takayoshi, Taniguchi, Takaaki, Ross, Caroline A.
Format: Preprint
Published: 2026
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author Lauer, Pete E.
Hayashi, Kensuke
Kunai, Yuichiro
Wojewoda, Ondřej
Klíma, Jan
Pribytova, Ekaterina
Urbánek, Michal
Penn, Aubrey
Kikuchi, Takayuki
Ma, Renzhi
Sasaki, Takayoshi
Taniguchi, Takaaki
Ross, Caroline A.
author_facet Lauer, Pete E.
Hayashi, Kensuke
Kunai, Yuichiro
Wojewoda, Ondřej
Klíma, Jan
Pribytova, Ekaterina
Urbánek, Michal
Penn, Aubrey
Kikuchi, Takayuki
Ma, Renzhi
Sasaki, Takayoshi
Taniguchi, Takaaki
Ross, Caroline A.
contents Multifunctional materials can exhibit emergent behavior from the coupling of two or more different properties. For example, coupling between magnetic and ferroelectric order enables electrical control of the magnetic state, enabling for example magnetoelectric memory or logic devices that combine the nonvolatility of magnetic order with the energy efficiency of voltage control. Magnetic iron garnets have outstanding magnonic and magnetooptical properties making them valuable in a range of technologies, but they have not been successfully incorporated into thin film two-phase magnetoelectric nanocomposites. Taking advantage of heterogeneously patterned substrates, this work demonstrates the engineering of garnet-perovskite composites in which both phases are polymorphs with the same composition but dramatically different structures and properties. Applying an electric field to the perovskite phase modulates the magnon dispersion and magnetooptical response of the garnet, opening a path to voltage-controlled garnet devices.
format Preprint
id arxiv_https___arxiv_org_abs_2604_07495
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Laterally Differentiated Polymorphs: a route to multifunctional nanostructures
Lauer, Pete E.
Hayashi, Kensuke
Kunai, Yuichiro
Wojewoda, Ondřej
Klíma, Jan
Pribytova, Ekaterina
Urbánek, Michal
Penn, Aubrey
Kikuchi, Takayuki
Ma, Renzhi
Sasaki, Takayoshi
Taniguchi, Takaaki
Ross, Caroline A.
Materials Science
Multifunctional materials can exhibit emergent behavior from the coupling of two or more different properties. For example, coupling between magnetic and ferroelectric order enables electrical control of the magnetic state, enabling for example magnetoelectric memory or logic devices that combine the nonvolatility of magnetic order with the energy efficiency of voltage control. Magnetic iron garnets have outstanding magnonic and magnetooptical properties making them valuable in a range of technologies, but they have not been successfully incorporated into thin film two-phase magnetoelectric nanocomposites. Taking advantage of heterogeneously patterned substrates, this work demonstrates the engineering of garnet-perovskite composites in which both phases are polymorphs with the same composition but dramatically different structures and properties. Applying an electric field to the perovskite phase modulates the magnon dispersion and magnetooptical response of the garnet, opening a path to voltage-controlled garnet devices.
title Laterally Differentiated Polymorphs: a route to multifunctional nanostructures
topic Materials Science
url https://arxiv.org/abs/2604.07495