Mn-doped SiGe thin films grown by UHV/CVD with room-temperature ferromagnetism and high hole mobility

In this work, silicon-germanium (SiGe) thin films are epitaxially grown on Ge substrates by ultra-high vacuum chemical vapor deposition and then doped with Mn element by ion-implantation and subsequent rapid thermal annealing (RTA). The characterizations show that the epitaxial SiGe thin films are s...

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Veröffentlicht in:Science China materials 2022-10, Vol.65 (10), p.2826-2832
Hauptverfasser: Shen, Limeng, Zhang, Xi, Wang, Jiaqi, Wang, Jianyuan, Li, Cheng, Xiang, Gang
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container_issue 10
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creator Shen, Limeng
Zhang, Xi
Wang, Jiaqi
Wang, Jianyuan
Li, Cheng
Xiang, Gang
description In this work, silicon-germanium (SiGe) thin films are epitaxially grown on Ge substrates by ultra-high vacuum chemical vapor deposition and then doped with Mn element by ion-implantation and subsequent rapid thermal annealing (RTA). The characterizations show that the epitaxial SiGe thin films are single-crystalline with uniform tensile strain and then become polycrystalline after the ion implantation and following RTA. The magnetization measurements indicate that the annealed thin films exhibit Mn concentration-dependent ferromagnetism up to 309 K and the X-ray magnetic circular dichroism characterizations reveal the spin and orbital magnetic moments from the substitutional Mn element. To minimize the influence of anomalous Hall effect, magneto-transport measurements at a high magnetic field up to 31 T at 300 K are performed to obtain the hole mobility, which reaches a record-high value of ∼1230 cm 2 V −1 s −1 , owing to the crystalline quality and tensile strain-induced energy band modulation of the samples. The first demonstration of Mn-doped SiGe thin films with room-temperature ferromagnetism and high carrier mobility may pave the way for practical semiconductor spintronic applications.
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China Mater</addtitle><description>In this work, silicon-germanium (SiGe) thin films are epitaxially grown on Ge substrates by ultra-high vacuum chemical vapor deposition and then doped with Mn element by ion-implantation and subsequent rapid thermal annealing (RTA). The characterizations show that the epitaxial SiGe thin films are single-crystalline with uniform tensile strain and then become polycrystalline after the ion implantation and following RTA. The magnetization measurements indicate that the annealed thin films exhibit Mn concentration-dependent ferromagnetism up to 309 K and the X-ray magnetic circular dichroism characterizations reveal the spin and orbital magnetic moments from the substitutional Mn element. 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subjects Annealing
Carrier mobility
Chemical vapor deposition
Chemistry and Materials Science
Chemistry/Food Science
Crystal structure
Crystallinity
Dichroism
Energy bands
Epitaxial growth
Ferromagnetism
Germanium
Hall effect
High vacuum
Hole mobility
Ion implantation
Magnetic moments
Magnetism
Manganese
Materials Science
Room temperature
Silicon germanides
Single crystals
Substrates
Tensile strain
Thin films
title Mn-doped SiGe thin films grown by UHV/CVD with room-temperature ferromagnetism and high hole mobility
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