Computationally predicting spin semiconductors and half metals from doped phosphorene monolayers

First-principles computations are performed to investigate phosphorene monolayers doped with 30 metal and nonmetal atoms. The binding energies indicate the stability of all doped configurations. Interestingly, the magnetic atom Co doping induces the absence of the magnetism while the magnetism is re...

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Veröffentlicht in:Frontiers of physics 2019-08, Vol.14 (4), p.43604, Article 43604
Hauptverfasser: Feng, Jing-Hua, Li, Geng, Meng, Xiang-Fei, Jian, Xiao-Dong, Dai, Zhen-Hong, Zhao, Yin-Chang, Zhou, Zhen
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container_title Frontiers of physics
container_volume 14
creator Feng, Jing-Hua
Li, Geng
Meng, Xiang-Fei
Jian, Xiao-Dong
Dai, Zhen-Hong
Zhao, Yin-Chang
Zhou, Zhen
description First-principles computations are performed to investigate phosphorene monolayers doped with 30 metal and nonmetal atoms. The binding energies indicate the stability of all doped configurations. Interestingly, the magnetic atom Co doping induces the absence of the magnetism while the magnetism is realized in phosphorene with substitutional doping of nonmagnetic atoms (O, S, Se, Si, Br, and Cl). The magnetic moment of transition metal (TM)-doped systems is suppressed in the range of 1.0-3.97 μ B. The electronic properties of the doped systems are modulated differently; O, S, Se, Ni, and Ti doped systems become spin semiconductors, while V doping makes the system a half metal. These results demonstrate potential applications of functionalized phosphorene with external atoms, in particular to spintronics and dilute magnetic semiconductors.
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The binding energies indicate the stability of all doped configurations. Interestingly, the magnetic atom Co doping induces the absence of the magnetism while the magnetism is realized in phosphorene with substitutional doping of nonmagnetic atoms (O, S, Se, Si, Br, and Cl). The magnetic moment of transition metal (TM)-doped systems is suppressed in the range of 1.0-3.97 μ B. The electronic properties of the doped systems are modulated differently; O, S, Se, Ni, and Ti doped systems become spin semiconductors, while V doping makes the system a half metal. 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subjects Astronomy
Astrophysics and Cosmology
Atomic
Condensed Matter Physics
density functional theory
Doping
Electronic properties
Electrons
Energy
First principles
Graphene
half metals
Magnetic moments
Magnetic semiconductors
Magnetism
Metals
Molecular
Monolayers
Optical and Plasma Physics
Particle and Nuclear Physics
Phosphorene
Phosphorus
Physics
Physics and Astronomy
Research Article
Semiconductors
spin semiconductors
Spintronics
Transition metals
title Computationally predicting spin semiconductors and half metals from doped phosphorene monolayers
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