Simulation of Nanopost-Guide Self Organization of Dendritic Inorganic Salt Structures

碩士 === 國立臺北科技大學 === 製造科技研究所 === 104 === In this study, using numerical method to solve the simplest phase-field model with different nanopost geometries and array densities and cool fluxes. Discuss and analyze the difference between phase and the relationship of nanopost. Compare the simulation resu...

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Main Authors: SanFeng Lin, 林三峯
Other Authors: 許華倚
Format: Others
Language:zh-TW
Published: 2016
Online Access:http://ndltd.ncl.edu.tw/handle/f8g3r4
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spelling ndltd-TW-104TIT056210232019-05-15T22:54:23Z http://ndltd.ncl.edu.tw/handle/f8g3r4 Simulation of Nanopost-Guide Self Organization of Dendritic Inorganic Salt Structures 奈米基柱誘導無機鹽之樹枝狀結構模擬探討 SanFeng Lin 林三峯 碩士 國立臺北科技大學 製造科技研究所 104 In this study, using numerical method to solve the simplest phase-field model with different nanopost geometries and array densities and cool fluxes. Discuss and analyze the difference between phase and the relationship of nanopost. Compare the simulation results to experiment data and images. Dendritic structures grow bias of simulations have a good consistency with observed in the experiment. In same time, lower density array can expand to the entire computation space, higher density array as the beginning stay in the middle. Whether the phase diagram or chart with the cool flux increased, the growth of dendritic structures more clearly, good nanopost array covering and larger spaces fill rate. Two initial growth of dendritic structures, illustrates the separated behavior of dendritic structures. Control nanopost geometry and array density and cool flux can form the desired pattern. 許華倚 2016 學位論文 ; thesis 0 zh-TW
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language zh-TW
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description 碩士 === 國立臺北科技大學 === 製造科技研究所 === 104 === In this study, using numerical method to solve the simplest phase-field model with different nanopost geometries and array densities and cool fluxes. Discuss and analyze the difference between phase and the relationship of nanopost. Compare the simulation results to experiment data and images. Dendritic structures grow bias of simulations have a good consistency with observed in the experiment. In same time, lower density array can expand to the entire computation space, higher density array as the beginning stay in the middle. Whether the phase diagram or chart with the cool flux increased, the growth of dendritic structures more clearly, good nanopost array covering and larger spaces fill rate. Two initial growth of dendritic structures, illustrates the separated behavior of dendritic structures. Control nanopost geometry and array density and cool flux can form the desired pattern.
author2 許華倚
author_facet 許華倚
SanFeng Lin
林三峯
author SanFeng Lin
林三峯
spellingShingle SanFeng Lin
林三峯
Simulation of Nanopost-Guide Self Organization of Dendritic Inorganic Salt Structures
author_sort SanFeng Lin
title Simulation of Nanopost-Guide Self Organization of Dendritic Inorganic Salt Structures
title_short Simulation of Nanopost-Guide Self Organization of Dendritic Inorganic Salt Structures
title_full Simulation of Nanopost-Guide Self Organization of Dendritic Inorganic Salt Structures
title_fullStr Simulation of Nanopost-Guide Self Organization of Dendritic Inorganic Salt Structures
title_full_unstemmed Simulation of Nanopost-Guide Self Organization of Dendritic Inorganic Salt Structures
title_sort simulation of nanopost-guide self organization of dendritic inorganic salt structures
publishDate 2016
url http://ndltd.ncl.edu.tw/handle/f8g3r4
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