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Wu, Chenjun; Yao, Dao‐Xin

doi:10.1016/j.jmmm.2019.01.085

Cited by 15 publications

(9 citation statements)

References 70 publications

(75 reference statements)

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“…Previous first principles calculations indicate that group-III monochalcogenides (e.g., GaS, GaSe and InSe), 11,14,15 [12,15,16] group-IV monoxides (SnO and PbO), 12,16 InP 3 , 17 SnX 2 (X=S and Se), 18 MoN 2 , 19 blue phosphorene and gray arsenene, 20 etc. show ferromagnetic characteristics with hole doping.…”

Section: Introductionmentioning

confidence: 99%

Ferromagnetism and half-metallicity in two-dimensional MO (M=Ga,In) monolayers induced by hole doping

Meng

Houssa

Iordanidou

et al. 2020

Phys. Rev. Materials

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Identification of new two-dimensional (2D) materials with magnetic properties has received strong research attention in the development of advanced spinbased devices. By means of first-principles calculations, we investigate the stability, electronic properties and the hole-doping-induced magnetic properties of novel metal oxide (MO, M = Ga, In) monolayers. They are intrinsically non-magnetic stable semiconductors, with high energetic, vibrational and thermal stability. Hole doping can switch them from non-magnetic to ferromagnetic and turn them into half-metals over a wide range of hole densities. Monte Carlo simulations predict that the highest Curie temperature of the GaO monolayer can reach ~125 K. Our results indicate that monolayer MO could be eligible candidate materials for novel 2D spintronic devices.

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Section: Introductionmentioning

confidence: 99%

Ferromagnetism and half-metallicity in two-dimensional MO (M=Ga,In) monolayers induced by hole doping

Meng

Houssa

Iordanidou

et al. 2020

Phys. Rev. Materials

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“…40 Therefore, the newly found three types of K 2 N phases belong to 2D room-temperature p-state ferromagnets. Because of the weak strength of the spin−orbital coupling, the p-state K 2 N phases are beneficial for overcoming the issue of short spin relaxation time of the d orbital of the transition metal 50 and would be advantageous for high-speed and long-distance spin polarized transport.…”

mentioning

confidence: 99%

Two-Dimensional AXenes: A New Family of Room-Temperature d⁰ Ferromagnets and Their Structural Phase Transitions

Liu

Xing

Zhao

2019

J. Phys. Chem. Lett.

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The recent discovery of two-dimensional (2D) magnetic order in monolayer CrI3 and bilayer Fe3GeTe2 has stimulated intense experimental and theoretical activities to expand the family of 2D magnets. Most 2D magnets reported to date are transition metal compounds with unpaired d electrons. Novel 2D intrinsic magnets with long-range p state coupling are also highly desirable. Here, we propose that nonstoichiometry is a feasible and universal strategy to realize long-range p electron magnetic order in 2D metal-shrouded AXenes (Na2N, K2N, and Rb2N), supported by our first-principles calculations. Taking K2N as a representative, three series of cation-deficient K2N (T, H, and I phases) have been predicted as stable ferromagnetic half-metal/metal with a Curie temperature of 480–1180 K. Their robust ferromagnetism is ascribed to the coexistence of carrier-mediated exchange and N–K–N superexchange interaction. Moreover, mechanical deformation can trigger reversible phase transformation by choosing their 3D layered counterpart as the intermediate phase.

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“…36–39 Using ab initio studies, the half-metal ferromagnetism properties of 2D TcS 2 nanosheets ( T C > 800 K), 2D Co 2 S 2 ( T C = 404 K), Cr 2 Se 3 ( T C = 480 K), Cr 2 S 3 ( T C = 420 K), and Cr 2 Te 3 ( T C = 510 K) monolayers and 2D Cr 2 O 3 monolayer ( T C = 332 K) have been reported. 40–43…”

Section: Introductionmentioning

confidence: 99%

Thermoelectric, spin-dependent optical and quantum transport properties of 2D half-metallic Co₂Se₃

Moradi

Vaezzadeh

Saeidi

2022

Phys. Chem. Chem. Phys.

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Robust p-orbital half-metallicity and high Curie-temperature in the hole-doped anisotropic TcX2 (X=S

Cited by 15 publications

References 70 publications

Ferromagnetism and half-metallicity in two-dimensional MO (M=Ga,In) monolayers induced by hole doping

Ferromagnetism and half-metallicity in two-dimensional MO (M=Ga,In) monolayers induced by hole doping

Two-Dimensional AXenes: A New Family of Room-Temperature d⁰ Ferromagnets and Their Structural Phase Transitions

Thermoelectric, spin-dependent optical and quantum transport properties of 2D half-metallic Co₂Se₃

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Robust p-orbital half-metallicity and high Curie-temperature in the hole-doped anisotropic TcX2 (X=S

Cited by 15 publications

References 70 publications

Ferromagnetism and half-metallicity in two-dimensional MO (M=Ga,In) monolayers induced by hole doping

Ferromagnetism and half-metallicity in two-dimensional MO (M=Ga,In) monolayers induced by hole doping

Two-Dimensional AXenes: A New Family of Room-Temperature d0 Ferromagnets and Their Structural Phase Transitions

Thermoelectric, spin-dependent optical and quantum transport properties of 2D half-metallic Co2Se3

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Product

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About

Two-Dimensional AXenes: A New Family of Room-Temperature d⁰ Ferromagnets and Their Structural Phase Transitions

Thermoelectric, spin-dependent optical and quantum transport properties of 2D half-metallic Co₂Se₃