Ion-beam modification of metastable gallium oxide polymorphs

•Structural changes revealed in α + ε(κ)-phase Ga2O3 under Al+ ion irradiation.•Interpretation of new X-ray diffraction peaks after irradiation is twofold.•Either phase transition or strain can be ion-induced in metastable Ga2O3. Structural changes under the action of Al+ irradiation have been inves...

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Veröffentlicht in:Materials letters 2021-11, Vol.302, p.130346, Article 130346
Hauptverfasser: Tetelbaum, David, Nikolskaya, Alena, Korolev, Dmitry, Mullagaliev, Timur, Belov, Alexey, Trushin, Vladimir, Dudin, Yuri, Nezhdanov, Alexey, Mashin, Aleksandr, Mikhaylov, Alexey, Pechnikov, Alexey, Scheglov, Michael, Nikolaev, Vladimir, Gogova, Daniela
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container_start_page 130346
container_title Materials letters
container_volume 302
creator Tetelbaum, David
Nikolskaya, Alena
Korolev, Dmitry
Mullagaliev, Timur
Belov, Alexey
Trushin, Vladimir
Dudin, Yuri
Nezhdanov, Alexey
Mashin, Aleksandr
Mikhaylov, Alexey
Pechnikov, Alexey
Scheglov, Michael
Nikolaev, Vladimir
Gogova, Daniela
description •Structural changes revealed in α + ε(κ)-phase Ga2O3 under Al+ ion irradiation.•Interpretation of new X-ray diffraction peaks after irradiation is twofold.•Either phase transition or strain can be ion-induced in metastable Ga2O3. Structural changes under the action of Al+ irradiation have been investigated by X-ray diffraction for polymorphic Ga2O3 layers grown by halide vapor phase epitaxy on c-plane sapphire and consisting predominantly of α-phase with inclusions of ε(κ)-phase. As a result of irradiation, some new reflections appear, which can be interpreted in two ways – either as a phase transition of the α- and/or ε(κ)-phase to the more stable β-phase, or as a selective radiation-stimulated strain of the ε(κ)-phase, i.e., an increase in the interplanar distance of a family of planes parallel to the surface. The discussed ion-stimulated phenomena have to be taken into account when utilizing ion implantation to modify Ga2O3 properties.
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Structural changes under the action of Al+ irradiation have been investigated by X-ray diffraction for polymorphic Ga2O3 layers grown by halide vapor phase epitaxy on c-plane sapphire and consisting predominantly of α-phase with inclusions of ε(κ)-phase. As a result of irradiation, some new reflections appear, which can be interpreted in two ways – either as a phase transition of the α- and/or ε(κ)-phase to the more stable β-phase, or as a selective radiation-stimulated strain of the ε(κ)-phase, i.e., an increase in the interplanar distance of a family of planes parallel to the surface. 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Structural changes under the action of Al+ irradiation have been investigated by X-ray diffraction for polymorphic Ga2O3 layers grown by halide vapor phase epitaxy on c-plane sapphire and consisting predominantly of α-phase with inclusions of ε(κ)-phase. As a result of irradiation, some new reflections appear, which can be interpreted in two ways – either as a phase transition of the α- and/or ε(κ)-phase to the more stable β-phase, or as a selective radiation-stimulated strain of the ε(κ)-phase, i.e., an increase in the interplanar distance of a family of planes parallel to the surface. 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Structural changes under the action of Al+ irradiation have been investigated by X-ray diffraction for polymorphic Ga2O3 layers grown by halide vapor phase epitaxy on c-plane sapphire and consisting predominantly of α-phase with inclusions of ε(κ)-phase. As a result of irradiation, some new reflections appear, which can be interpreted in two ways – either as a phase transition of the α- and/or ε(κ)-phase to the more stable β-phase, or as a selective radiation-stimulated strain of the ε(κ)-phase, i.e., an increase in the interplanar distance of a family of planes parallel to the surface. The discussed ion-stimulated phenomena have to be taken into account when utilizing ion implantation to modify Ga2O3 properties.</abstract><cop>Amsterdam</cop><pub>Elsevier B.V</pub><doi>10.1016/j.matlet.2021.130346</doi></addata></record>
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subjects Beta phase
Epitaxial growth
Gallium oxide
Gallium oxides
Inclusions
Ion beams
Ion implantation
Ion irradiation
Irradiation
Materials science
Metastable phases
Phase transformations
Phase transitions
Radiation-stimulated strain
Sapphire
Vapor phase epitaxy
Vapor phases
title Ion-beam modification of metastable gallium oxide polymorphs
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