Rapid, One-Step, Digital Selective Growth of ZnO Nanowires on 3D Structures Using Laser Induced Hydrothermal Growth

For functional nanowire based electronics fabrication, conventionally, combination of complex multiple steps, such as (1) chemical vapor deposition (CVD) growth of nanowire, (2) harvesting of nanowire, (3) manipulation and placement of individual nanowires, and (4) integration of nanowire to circuit...

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Veröffentlicht in:Advanced functional materials 2013-07, Vol.23 (26), p.3316-3323
Hauptverfasser: Yeo, Junyeob, Hong, Sukjoon, Wanit, Manorotkul, Kang, Hyun Wook, Lee, Daeho, Grigoropoulos, Costas P., Sung, Hyung Jin, Ko, Seung Hwan
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container_end_page 3323
container_issue 26
container_start_page 3316
container_title Advanced functional materials
container_volume 23
creator Yeo, Junyeob
Hong, Sukjoon
Wanit, Manorotkul
Kang, Hyun Wook
Lee, Daeho
Grigoropoulos, Costas P.
Sung, Hyung Jin
Ko, Seung Hwan
description For functional nanowire based electronics fabrication, conventionally, combination of complex multiple steps, such as (1) chemical vapor deposition (CVD) growth of nanowire, (2) harvesting of nanowire, (3) manipulation and placement of individual nanowires, and (4) integration of nanowire to circuit are necessary. Each step is very time consuming, expensive, and environmentally unfriendly, and only a very low yield is achieved through the multiple steps. As an alternative to conventional complex multistep approach, original findings are presented on the first demonstration of rapid, one step, digital selective growth of nanowires directly on 3D micro/nanostructures by developing a novel approach; laser induced hydrothermal growth (LIHG) without any complex integration of series of multiple process steps such as using any conventional photolithography process or CVD. The LIHG process can grow nanowires by scanning a focused laser beam as a local heat source in a fully digital manner to grow nanowires on arbitrary patterns and even on the non‐flat, 3D micro/nano structures in a safer liquid environment, as opposed to a gas environment. The LIHG process can greatly reduce the processing lead time and simplify the nanowire‐based nanofabrication process by removing multiple steps for growth, harvest, manipulation/placement, and integration of the nanowires. LIHG process can grow nanowire directly on 3D micro/nano structures, which will be extremely challenging even for the conventional nanowire integration processes. LIHG does not need a vacuum environment to grow nanowires but can be performed in a solution environment which is safer and cheaper. LIHG can also be used for flexible substrates such as temperature‐sensitive polymers due to the low processing temperature. Most of all, the LIHG process is a digital process that does not require conventional vacuum deposition or a photolithography mask. Laser induced hydrothermal growth (LIHG) is developed for rapid, one step, digital selective growth of nanowires directly on 3D micro/nanostructures without using conventional photolithography or chemical vapor deposition. The LIHG process greatly reduces the process lead time and simplifies nanowire‐based nanofabrication by removing multiple steps for growth, harvesting, manipulation/placement, and integration of the nanowires. Furthermore, the LIHG process can grow nanowires directly on 3D micro/nanostructures.
doi_str_mv 10.1002/adfm.201203863
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The LIHG process can greatly reduce the processing lead time and simplify the nanowire‐based nanofabrication process by removing multiple steps for growth, harvest, manipulation/placement, and integration of the nanowires. LIHG process can grow nanowire directly on 3D micro/nano structures, which will be extremely challenging even for the conventional nanowire integration processes. LIHG does not need a vacuum environment to grow nanowires but can be performed in a solution environment which is safer and cheaper. LIHG can also be used for flexible substrates such as temperature‐sensitive polymers due to the low processing temperature. Most of all, the LIHG process is a digital process that does not require conventional vacuum deposition or a photolithography mask. Laser induced hydrothermal growth (LIHG) is developed for rapid, one step, digital selective growth of nanowires directly on 3D micro/nanostructures without using conventional photolithography or chemical vapor deposition. 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As an alternative to conventional complex multistep approach, original findings are presented on the first demonstration of rapid, one step, digital selective growth of nanowires directly on 3D micro/nanostructures by developing a novel approach; laser induced hydrothermal growth (LIHG) without any complex integration of series of multiple process steps such as using any conventional photolithography process or CVD. The LIHG process can grow nanowires by scanning a focused laser beam as a local heat source in a fully digital manner to grow nanowires on arbitrary patterns and even on the non‐flat, 3D micro/nano structures in a safer liquid environment, as opposed to a gas environment. The LIHG process can greatly reduce the processing lead time and simplify the nanowire‐based nanofabrication process by removing multiple steps for growth, harvest, manipulation/placement, and integration of the nanowires. 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subjects Chemical vapor deposition
Digital
hydrothermal growth
Lasers
low temperature synthesis
Nanocomposites
Nanomaterials
Nanostructure
Nanowires
one-step direct growth
selective local laser growth
Three dimensional
UV sensors
ZnO nanowires
title Rapid, One-Step, Digital Selective Growth of ZnO Nanowires on 3D Structures Using Laser Induced Hydrothermal Growth
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