Atomically sharp domain walls in an antiferromagnet

The interest in understanding scaling limits of magnetic textures such as domain walls spans the entire field of magnetism from its physical fundamentals to applications in information technologies. Here, we explore antiferromagnetic CuMnAs in which imaging by x-ray photoemission reveals the presenc...

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Published inScience advances Vol. 8; no. 13; p. eabn3535
Main Authors Krizek, Filip, Reimers, Sonka, Kašpar, Zdeněk, Marmodoro, Alberto, Michalička, Jan, Man, Ondřej, Edström, Alexander, Amin, Oliver J., Edmonds, Kevin W., Campion, Richard P., Maccherozzi, Francesco, Dhesi, Samjeet S., Zubáč, Jan, Kriegner, Dominik, Carbone, Dina, Železný, Jakub, Výborný, Karel, Olejník, Kamil, Novák, Vít, Rusz, Jan, Idrobo, Juan-Carlos, Wadley, Peter, Jungwirth, Tomas
Format Journal Article
LanguageEnglish
Published United States AAAS 01.04.2022
American Association for the Advancement of Science
Subjects
CLASSICAL AND QUANTUM MECHANICS, GENERAL PHYSICS
Condensed Matter Physics
Condensed Matter Physics (including Material Physics, Nano Physics)
Den kondenserade materiens fysik
Den kondenserade materiens fysik (Här ingår: Materialfysik, nanofysik)
Fysik
Natural Sciences
Naturvetenskap
Physical and Materials Sciences
Physical Sciences
SciAdv r-articles
Science & Technology - Other Topics
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Abstract The interest in understanding scaling limits of magnetic textures such as domain walls spans the entire field of magnetism from its physical fundamentals to applications in information technologies. Here, we explore antiferromagnetic CuMnAs in which imaging by x-ray photoemission reveals the presence of magnetic textures down to nanoscale, reaching the detection limit of this established microscopy in antiferromagnets. We achieve atomic resolution by using differential phase-contrast imaging within aberration-corrected scanning transmission electron microscopy. We identify abrupt domain walls in the antiferromagnetic film corresponding to the Néel order reversal between two neighboring atomic planes. Our work stimulates research of magnetic textures at the ultimate atomic scale and sheds light on electrical and ultrafast optical antiferromagnetic devices with magnetic field–insensitive neuromorphic functionalities. Transmission electron microscopy reveals atomically sharp domain walls in a workhorse material of antiferromagnetic spintronics.
AbstractList The interest in understanding scaling limits of magnetic textures such as domain walls spans the entire field of magnetism from its physical fundamentals to applications in information technologies. Here, we explore antifer-romagnetic CuMnAs in which imaging by x-ray photoemission reveals the presence of magnetic textures down to nanoscale, reaching the detection limit of this established microscopy in antiferromagnets. We achieve atomic resolution by using differential phase-contrast imaging within aberration-corrected scanning transmission electron microscopy. We identify abrupt domain walls in the antiferromagnetic film corresponding to the Neel order reversal between two neighboring atomic planes. Our work stimulates research of magnetic textures at the ultimate atomic scale and sheds light on electrical and ultrafast optical antiferromagnetic devices with magnetic field-insensitive neuromorphic functionalities.
The interest in understanding scaling limits of magnetic textures such as domain walls spans the entire field of magnetism from its physical fundamentals to applications in information technologies. Here, we explore antiferromagnetic CuMnAs in which imaging by x-ray photoemission reveals the presence of magnetic textures down to nanoscale, reaching the detection limit of this established microscopy in antiferromagnets. We achieve atomic resolution by using differential phase-contrast imaging within aberration-corrected scanning transmission electron microscopy. We identify abrupt domain walls in the antiferromagnetic film corresponding to the Néel order reversal between two neighboring atomic planes. Our work stimulates research of magnetic textures at the ultimate atomic scale and sheds light on electrical and ultrafast optical antiferromagnetic devices with magnetic field-insensitive neuromorphic functionalities.The interest in understanding scaling limits of magnetic textures such as domain walls spans the entire field of magnetism from its physical fundamentals to applications in information technologies. Here, we explore antiferromagnetic CuMnAs in which imaging by x-ray photoemission reveals the presence of magnetic textures down to nanoscale, reaching the detection limit of this established microscopy in antiferromagnets. We achieve atomic resolution by using differential phase-contrast imaging within aberration-corrected scanning transmission electron microscopy. We identify abrupt domain walls in the antiferromagnetic film corresponding to the Néel order reversal between two neighboring atomic planes. Our work stimulates research of magnetic textures at the ultimate atomic scale and sheds light on electrical and ultrafast optical antiferromagnetic devices with magnetic field-insensitive neuromorphic functionalities.
The interest in understanding scaling limits of magnetic textures such as domain walls spans the entire field of magnetism from its physical fundamentals to applications in information technologies. Here, we explore antiferromagnetic CuMnAs in which imaging by x-ray photoemission reveals the presence of magnetic textures down to nanoscale, reaching the detection limit of this established microscopy in antiferromagnets. We achieve atomic resolution by using differential phase-contrast imaging within aberration-corrected scanning transmission electron microscopy. We identify abrupt domain walls in the antiferromagnetic film corresponding to the Néel order reversal between two neighboring atomic planes. Our work stimulates research of magnetic textures at the ultimate atomic scale and sheds light on electrical and ultrafast optical antiferromagnetic devices with magnetic field–insensitive neuromorphic functionalities. Transmission electron microscopy reveals atomically sharp domain walls in a workhorse material of antiferromagnetic spintronics.
The interest in understanding scaling limits of magnetic textures such as domain walls spans the entire field of magnetism from its physical fundamentals to applications in information technologies. Here, we explore antiferromagnetic CuMnAs in which imaging by x-ray photoemission reveals the presence of magnetic textures down to nanoscale, reaching the detection limit of this established microscopy in antiferromagnets. We achieve atomic resolution by using differential phase-contrast imaging within aberration-corrected scanning transmission electron microscopy. We identify abrupt domain walls in the antiferromagnetic film corresponding to the Néel order reversal between two neighboring atomic planes. Our work stimulates research of magnetic textures at the ultimate atomic scale and sheds light on electrical and ultrafast optical antiferromagnetic devices with magnetic field–insensitive neuromorphic functionalities.
Author Maccherozzi, Francesco
Kriegner, Dominik
Reimers, Sonka
Campion, Richard P.
Michalička, Jan
Man, Ondřej
Wadley, Peter
Výborný, Karel
Novák, Vít
Jungwirth, Tomas
Carbone, Dina
Marmodoro, Alberto
Železný, Jakub
Rusz, Jan
Idrobo, Juan-Carlos
Amin, Oliver J.
Edström, Alexander
Zubáč, Jan
Krizek, Filip
Kašpar, Zdeněk
Dhesi, Samjeet S.
Edmonds, Kevin W.
Olejník, Kamil
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Snippet The interest in understanding scaling limits of magnetic textures such as domain walls spans the entire field of magnetism from its physical fundamentals to...
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SubjectTerms CLASSICAL AND QUANTUM MECHANICS, GENERAL PHYSICS
Condensed Matter Physics
Condensed Matter Physics (including Material Physics, Nano Physics)
Den kondenserade materiens fysik
Den kondenserade materiens fysik (Här ingår: Materialfysik, nanofysik)
Fysik
Natural Sciences
Naturvetenskap
Physical and Materials Sciences
Physical Sciences
SciAdv r-articles
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Title Atomically sharp domain walls in an antiferromagnet
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