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Role of high nitrogen flux in InAlN growth by plasma-assisted molecular beam epitaxy

•High N-flux stabilizes In-N bonds in InAlN.•InAlN lattice-matched to GaN was grown at 605 °C by MBE.•InAlN indium content diagram is shown as a function of growth temperature and N-flux.•Honeycomb microstructure is observed for InAlN grown with low and high N-flux.•Increase of average cell size is...

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Published in:Journal of crystal growth 2020-08, Vol.544, p.125720, Article 125720
Main Authors: Sawicka, Marta, Fiuczek, Natalia, Wolny, Paweł, Feduniewicz-Żmuda, Anna, Siekacz, Marcin, Kryśko, Marcin, Nowakowski-Szkudlarek, Krzesimir, Smalc-Koziorowska, Julita, Kret, Sławomir, Gačević, Žarko, Calleja, Enrique, Skierbiszewski, Czesław
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cited_by cdi_FETCH-LOGICAL-c340t-ee86ef20f2efdcca00cf9f107f83fc85750d9464ee15f351a5e84d76927f0c763
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container_start_page 125720
container_title Journal of crystal growth
container_volume 544
creator Sawicka, Marta
Fiuczek, Natalia
Wolny, Paweł
Feduniewicz-Żmuda, Anna
Siekacz, Marcin
Kryśko, Marcin
Nowakowski-Szkudlarek, Krzesimir
Smalc-Koziorowska, Julita
Kret, Sławomir
Gačević, Žarko
Calleja, Enrique
Skierbiszewski, Czesław
description •High N-flux stabilizes In-N bonds in InAlN.•InAlN lattice-matched to GaN was grown at 605 °C by MBE.•InAlN indium content diagram is shown as a function of growth temperature and N-flux.•Honeycomb microstructure is observed for InAlN grown with low and high N-flux.•Increase of average cell size is observed for increased N-flux and growth temperature. We study the impact of increased active nitrogen flux (N-flux) on the indium content and structural properties of InAlN layers grown by plasma-assisted molecular beam epitaxy. It is shown that high N-flux can stabilize In-N bonds, so that In0.18Al0.82N is grown at 605 °C, which is the highest reported temperature so far for the composition lattice-matched (LM) to GaN. Adiagram of InAlN indium content is shown as a function of growth temperature and N-flux. The InAlN layers grown using low and high N-flux had grainy surface morphology typical for N-rich conditions. Inhomogeneity in indium distribution on nanometer scale, i.e. typical honeycomb microstructure, is found for InAlN layers grown using both: low and high N-flux. An increase of average cell size is observed for LM-InAlN when the N-flux and growth temperature are increased.
doi_str_mv 10.1016/j.jcrysgro.2020.125720
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We study the impact of increased active nitrogen flux (N-flux) on the indium content and structural properties of InAlN layers grown by plasma-assisted molecular beam epitaxy. It is shown that high N-flux can stabilize In-N bonds, so that In0.18Al0.82N is grown at 605 °C, which is the highest reported temperature so far for the composition lattice-matched (LM) to GaN. Adiagram of InAlN indium content is shown as a function of growth temperature and N-flux. The InAlN layers grown using low and high N-flux had grainy surface morphology typical for N-rich conditions. Inhomogeneity in indium distribution on nanometer scale, i.e. typical honeycomb microstructure, is found for InAlN layers grown using both: low and high N-flux. 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We study the impact of increased active nitrogen flux (N-flux) on the indium content and structural properties of InAlN layers grown by plasma-assisted molecular beam epitaxy. It is shown that high N-flux can stabilize In-N bonds, so that In0.18Al0.82N is grown at 605 °C, which is the highest reported temperature so far for the composition lattice-matched (LM) to GaN. Adiagram of InAlN indium content is shown as a function of growth temperature and N-flux. The InAlN layers grown using low and high N-flux had grainy surface morphology typical for N-rich conditions. Inhomogeneity in indium distribution on nanometer scale, i.e. typical honeycomb microstructure, is found for InAlN layers grown using both: low and high N-flux. An increase of average cell size is observed for LM-InAlN when the N-flux and growth temperature are increased.</description><subject>A1. Atomic force microscopy</subject><subject>A1. Reflection high energy electron diffraction</subject><subject>A3. Molecular beam epitaxy</subject><subject>B1. Nitrides</subject><subject>B2. 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We study the impact of increased active nitrogen flux (N-flux) on the indium content and structural properties of InAlN layers grown by plasma-assisted molecular beam epitaxy. It is shown that high N-flux can stabilize In-N bonds, so that In0.18Al0.82N is grown at 605 °C, which is the highest reported temperature so far for the composition lattice-matched (LM) to GaN. Adiagram of InAlN indium content is shown as a function of growth temperature and N-flux. The InAlN layers grown using low and high N-flux had grainy surface morphology typical for N-rich conditions. Inhomogeneity in indium distribution on nanometer scale, i.e. typical honeycomb microstructure, is found for InAlN layers grown using both: low and high N-flux. 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subjects A1. Atomic force microscopy
A1. Reflection high energy electron diffraction
A3. Molecular beam epitaxy
B1. Nitrides
B2. Semiconducting III-V materials
Epitaxial growth
Flux
Indium
Inhomogeneity
Lattice matching
Molecular beam epitaxy
Morphology
Nitrogen
title Role of high nitrogen flux in InAlN growth by plasma-assisted molecular beam epitaxy
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