Fabrication of the uniform CdTe quantum dot array on GaAs substrate utilizing nanoporous alumina masks

Fabrication of quantum dot array (QDA) is attractive for applications in electronic and optoelectronic devices. The CdTe QDAs have potential applications in optoelectronic devices of visible range. One of the major challenges in fabricating QDAs is the uniformity and reproducibility in size and spat...

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Published inCurrent applied physics Vol. 6; no. 6; pp. 1016 - 1019
Main Authors Jung, Mi, Lee, Hong Seok, Park, Hong Lee, Lim, Han-jo, Mho, Sun-il
Format Journal Article
LanguageEnglish
Published Elsevier B.V 01.10.2006
한국물리학회
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ISSN1567-1739
1878-1675
1567-1739
DOI10.1016/j.cap.2005.07.010

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Abstract Fabrication of quantum dot array (QDA) is attractive for applications in electronic and optoelectronic devices. The CdTe QDAs have potential applications in optoelectronic devices of visible range. One of the major challenges in fabricating QDAs is the uniformity and reproducibility in size and spatial distribution. The uniformity and reproducibility of QDs can be improved by using the nanoporous alumina mask. The geometry of porous alumina is schematically represented as a close-packed array of columnar hexagonal cells, each containing a central pore normal to the substrate. The well-ordered nanoporous alumina masks were able to obtain by two-step anodizing processes from aluminum in oxalic acid solutions at low temperature. The pore size, thickness, and density of nanoporous alumina mask can be controlled with the anodization voltage, time, and electrolyte. The CdTe QDAs on the GaAs substrate was grown by molecular beam epitaxy method using the porous alumina masks. The temperature of substrate and source (Cd, Te) was an important factor for the growth of CdTe QDs on GaAs substrate. The CdTe QDAs of 80 nm dot size was fabricated; using the porous alumina masks (∼300 nm thickness) of pore diameter (80 nm) and density (∼10 10 /cm 2).
AbstractList Fabrication of quantum dot array (QDA) is attractive for applications in electronic and optoelectronic devices. The CdTe QDAshave potential applications in optoelectronic devices of visible range. One of the major challenges in fabricating QDAs is the uni-formity and reproducibility in size and spatial distribution. The uniformity and reproducibility of QDs can be improved by using thenanoporous alumina mask. The geometry of porous alumina is schematically represented as a close-packed array of columnar hex-agonal cells, each containing a central pore normal to the substrate. The well-ordered nanoporous alumina masks were able toobtain by two-step anodizing processes from aluminum in oxalic acid solutions at low temperature. The pore size, thickness, anddensity of nanoporous alumina mask can be controlled with the anodization voltage, time, and electrolyte. The CdTe QDAs onthe GaAs substrate was grown by molecular beam epitaxy method using the porous alumina masks. The temperature of substrateand source (Cd, Te) was an important factor for the growth of CdTe QDs on GaAs substrate. The CdTe QDAs of 80 nm dot sizewas fabricated; using the porous alumina masks (. 300 nm thickness) of pore diameter (80 nm) and density (. 1010 /cm2). KCI Citation Count: 2
Fabrication of quantum dot array (QDA) is attractive for applications in electronic and optoelectronic devices. The CdTe QDAs have potential applications in optoelectronic devices of visible range. One of the major challenges in fabricating QDAs is the uniformity and reproducibility in size and spatial distribution. The uniformity and reproducibility of QDs can be improved by using the nanoporous alumina mask. The geometry of porous alumina is schematically represented as a close-packed array of columnar hexagonal cells, each containing a central pore normal to the substrate. The well-ordered nanoporous alumina masks were able to obtain by two-step anodizing processes from aluminum in oxalic acid solutions at low temperature. The pore size, thickness, and density of nanoporous alumina mask can be controlled with the anodization voltage, time, and electrolyte. The CdTe QDAs on the GaAs substrate was grown by molecular beam epitaxy method using the porous alumina masks. The temperature of substrate and source (Cd, Te) was an important factor for the growth of CdTe QDs on GaAs substrate. The CdTe QDAs of 80 nm dot size was fabricated; using the porous alumina masks (∼300 nm thickness) of pore diameter (80 nm) and density (∼10 10 /cm 2).
Author Mho, Sun-il
Lim, Han-jo
Jung, Mi
Park, Hong Lee
Lee, Hong Seok
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Keywords 81.15.Hi
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CdTe quantum dot array
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Nanoporous alumina mask
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Snippet Fabrication of quantum dot array (QDA) is attractive for applications in electronic and optoelectronic devices. The CdTe QDAs have potential applications in...
Fabrication of quantum dot array (QDA) is attractive for applications in electronic and optoelectronic devices. The CdTe QDAshave potential applications in...
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SubjectTerms CdTe quantum dot array
Nanoporous alumina mask
물리학
Title Fabrication of the uniform CdTe quantum dot array on GaAs substrate utilizing nanoporous alumina masks
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