FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4327720929> ?p ?o ?g. }

• W4327720929 abstract "Bilayer topological insulator/ferromagnet (TI/FM) heterostructures are promising for spintronic applications due to their low switching energy and therefore power efficiency. Until recently, the reactivity of TIs with FM films was overlooked in the spin-orbit-torque literature, even though there are reports that it is energetically favorable for TIs to react with transition metals and form interfacial layers. In this study, we fabricated a TI/FM heterostructure comprised of molecular beam epitaxy grown ${mathrm{Sb}}_{2}{mathrm{Te}}_{3}$ and dc sputtered ${mathrm{Ni}}_{80}{mathrm{Fe}}_{20}$. Broadband ferromagnetic resonance revealed spin-pumping evident by the significant enhancement in Gilbert damping, which is likely a signature of the topological surface states or the presence of large spin-orbit coupling in the adjacent ${mathrm{Sb}}_{2}{mathrm{Te}}_{3}$. With low-temperature magnetometry, an exchange bias is observed that indicates an exchange interaction between an antiferromagnet (AFM) and an adjacent FM. Cross-section high-angle annular dark-field scanning transmission electron microscopy characterization of the ${mathrm{Sb}}_{2}{mathrm{Te}}_{3}text{ensuremath{-}}mathrm{N}{mathrm{i}}_{80}{mathrm{Fe}}_{20}$ bilayer revealed a complex interface showing diffusion of Fe and Ni into the ${mathrm{Sb}}_{2}{mathrm{Te}}_{3}$ film yielding the formation of a $mathrm{Fe}{mathrm{Te}}_{2} 1Ttext{ensuremath{-}}mathrm{type}$ structural phase. Furthermore, density functional theory calculations revealed that the $mathrm{Fe}{mathrm{Te}}_{2} 1Ttext{ensuremath{-}}mathrm{phase}$ has an AFM ground state. Due to experimental limitations in the electron-energy-loss spectroscopy measurements, the precise chemistry of the interfacial phase could not be determined, therefore it is possible that the $mathrm{Fe}{mathrm{Te}}_{2} 1T$ and/or an intermixed $({mathrm{Fe}}_{1--x}{mathrm{Ni}}_{x}){mathrm{Te}}_{2} 1T$ is the AFM interfacial phase contributing to exchange bias in the system. This work emphasizes the chemical complexity of TI/FM interfaces that host novel, metastable magnetic topological phases and require more in-depth studies of other similar interfaces." @default.
• W4327720929 created "2023-03-18" @default.
• W4327720929 creator A5000294793 @default.
• W4327720929 creator A5030799888 @default.
• W4327720929 creator A5040066988 @default.
• W4327720929 creator A5044781426 @default.
• W4327720929 creator A5045098747 @default.
• W4327720929 creator A5053362766 @default.
• W4327720929 creator A5054626174 @default.
• W4327720929 creator A5056652414 @default.
• W4327720929 creator A5062017340 @default.
• W4327720929 creator A5062294442 @default.
• W4327720929 creator A5081911055 @default.
• W4327720929 date "2023-02-15" @default.
• W4327720929 modified "2023-10-18" @default.
• W4327720929 title "Antiferromagnetic <mml:math xmlns:mml=http://www.w3.org/1998/Math/MathML><mml:mrow><mml:mi>Fe</mml:mi><mml:msub><mml:mi>Te</mml:mi><mml:mn>2</mml:mn></mml:msub></mml:mrow><mml:mo> </mml:mo><mml:mrow><mml:mn>1</mml:mn><mml:mi>T</mml:mi><mml:mtext>−</mml:mtext><mml:mi>phase</mml:mi></mml:mrow></mml:math> formation at the <mml:math xmlns:mml=http://www.w3.org/1998/Math/MathML><mml:mrow><mml:msub><mml:mi>Sb</mml:mi><mml:mn>2</mml:mn></mml:msub><mml:msub><mml:mi>Te</mml:mi><mml:mn>3</mml:mn></…" @default.
• W4327720929 cites W1484947792 @default.
• W4327720929 cites W1820129398 @default.
• W4327720929 cites W1979544533 @default.
• W4327720929 cites W1985777528 @default.
• W4327720929 cites W1992985800 @default.
• W4327720929 cites W1993042145 @default.
• W4327720929 cites W1995009608 @default.
• W4327720929 cites W1999759182 @default.
• W4327720929 cites W2001525552 @default.
• W4327720929 cites W2007395042 @default.
• W4327720929 cites W2057215970 @default.
• W4327720929 cites W2079105963 @default.
• W4327720929 cites W2083222334 @default.
• W4327720929 cites W2087698390 @default.
• W4327720929 cites W2094596244 @default.
• W4327720929 cites W2102074887 @default.
• W4327720929 cites W2162612236 @default.
• W4327720929 cites W2166943735 @default.
• W4327720929 cites W2250127224 @default.
• W4327720929 cites W2283976972 @default.
• W4327720929 cites W2293673104 @default.
• W4327720929 cites W2346887685 @default.
• W4327720929 cites W2396933950 @default.
• W4327720929 cites W2438541361 @default.
• W4327720929 cites W2464357302 @default.
• W4327720929 cites W2611395271 @default.
• W4327720929 cites W2763287006 @default.
• W4327720929 cites W2785440515 @default.
• W4327720929 cites W2806229492 @default.
• W4327720929 cites W2811138498 @default.
• W4327720929 cites W2883676000 @default.
• W4327720929 cites W2885360963 @default.
• W4327720929 cites W2899889622 @default.
• W4327720929 cites W2909049917 @default.
• W4327720929 cites W2963657244 @default.
• W4327720929 cites W2977696893 @default.
• W4327720929 cites W2989339607 @default.
• W4327720929 cites W3007917200 @default.
• W4327720929 cites W3019491712 @default.
• W4327720929 cites W3037678145 @default.
• W4327720929 cites W3039213204 @default.
• W4327720929 cites W3046099631 @default.
• W4327720929 cites W3083104951 @default.
• W4327720929 cites W3089433701 @default.
• W4327720929 cites W3100254053 @default.
• W4327720929 cites W3101149514 @default.
• W4327720929 cites W3110719084 @default.
• W4327720929 cites W3119077673 @default.
• W4327720929 cites W3124774277 @default.
• W4327720929 cites W3173717275 @default.
• W4327720929 cites W3174024485 @default.
• W4327720929 cites W3186311758 @default.
• W4327720929 cites W4200277921 @default.
• W4327720929 cites W4210912609 @default.
• W4327720929 cites W4211262200 @default.
• W4327720929 cites W4220922570 @default.
• W4327720929 cites W4220957153 @default.
• W4327720929 cites W4285493646 @default.
• W4327720929 cites W4299070324 @default.
• W4327720929 cites W4307030544 @default.
• W4327720929 doi "https://doi.org/10.1103/physrevmaterials.7.024406" @default.
• W4327720929 hasPublicationYear "2023" @default.
• W4327720929 type Work @default.
• W4327720929 citedByCount "0" @default.
• W4327720929 crossrefType "journal-article" @default.
• W4327720929 hasAuthorship W4327720929A5000294793 @default.
• W4327720929 hasAuthorship W4327720929A5030799888 @default.
• W4327720929 hasAuthorship W4327720929A5040066988 @default.
• W4327720929 hasAuthorship W4327720929A5044781426 @default.
• W4327720929 hasAuthorship W4327720929A5045098747 @default.
• W4327720929 hasAuthorship W4327720929A5053362766 @default.
• W4327720929 hasAuthorship W4327720929A5054626174 @default.
• W4327720929 hasAuthorship W4327720929A5056652414 @default.
• W4327720929 hasAuthorship W4327720929A5062017340 @default.
• W4327720929 hasAuthorship W4327720929A5062294442 @default.
• W4327720929 hasAuthorship W4327720929A5081911055 @default.
• W4327720929 hasConcept C121332964 @default.
• W4327720929 hasConcept C155355069 @default.
• W4327720929 hasConcept C185592680 @default.
• W4327720929 hasConcept C186370098 @default.
• W4327720929 hasConcept C192562407 @default.
• W4327720929 hasConcept C26873012 @default.
• W4327720929 hasConcept C62520636 @default.
• W4327720929 hasConcept C8010536 @default.

• next