Oblique incident wave interactions with composite curtainwall pile supported breakwaters

碩士 === 國立臺灣海洋大學 === 河海工程學系 === 102 === This study used the multi-domain boundary element method (MBEM) to investigate oblique incident wave composite curtainwall pile supported breakwaters and the hydrodynamic characteristics of curtainwall pile supported breakwaters. This study suggested that each...

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Main Authors: Yang, Yu-Chieh, 楊喻傑
Other Authors: Yueh, Ching-Yun
Format: Others
Language:zh-TW
Published: 2014
Online Access:http://ndltd.ncl.edu.tw/handle/99718373334958050508
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spelling ndltd-TW-102NTOU51920552016-02-21T04:33:03Z http://ndltd.ncl.edu.tw/handle/99718373334958050508 Oblique incident wave interactions with composite curtainwall pile supported breakwaters 波浪斜向入射複合式帷幕牆防波堤之研究 Yang, Yu-Chieh 楊喻傑 碩士 國立臺灣海洋大學 河海工程學系 102 This study used the multi-domain boundary element method (MBEM) to investigate oblique incident wave composite curtainwall pile supported breakwaters and the hydrodynamic characteristics of curtainwall pile supported breakwaters. This study suggested that each row of curtain wall should use the submerged water depth of the upper impermeable structure as an incremental. Accordingly, wave energy can permeate the front curtain wall and the rear curtain can dissipate the wave energy. However, when the distance between a wave and the front-face curtain wall (B1/L) was approximately 0.5, a resonance problem occurred in the surface water between curtain walls. Therefore, the curtainwall pile supported breakwaters were ameliorated by adding a horizontal permeable plate to the front-face side of curtainwall pile supported breakwaters. The results showed that the resonance problem ceased and the double-row composite curtainwall pile supported breakwaters presented optimal performance (the relative submerged water depth of the curtainwall pile supported breakwater: d1/h = 0.1 and d2/h=0.5; B/h (relative distance) = 0.5; f (friction coefficient) = 2.0, S (inertial coefficient) = 1.0; b/h (relative thickness) = 0.06; εv (porosity) = εh=0.6). Furthermore, the results showed that the ameliorated breakwaters rendered water surface steadier, reduced the amount of wave run-up caused by resonance in the internal structure, and lowered the possibility of breakwater damage. The curtain wall structure also enabled breakwaters to resist wave force. Yueh, Ching-Yun 岳景雲 2014 學位論文 ; thesis 107 zh-TW
collection NDLTD
language zh-TW
format Others
sources NDLTD
description 碩士 === 國立臺灣海洋大學 === 河海工程學系 === 102 === This study used the multi-domain boundary element method (MBEM) to investigate oblique incident wave composite curtainwall pile supported breakwaters and the hydrodynamic characteristics of curtainwall pile supported breakwaters. This study suggested that each row of curtain wall should use the submerged water depth of the upper impermeable structure as an incremental. Accordingly, wave energy can permeate the front curtain wall and the rear curtain can dissipate the wave energy. However, when the distance between a wave and the front-face curtain wall (B1/L) was approximately 0.5, a resonance problem occurred in the surface water between curtain walls. Therefore, the curtainwall pile supported breakwaters were ameliorated by adding a horizontal permeable plate to the front-face side of curtainwall pile supported breakwaters. The results showed that the resonance problem ceased and the double-row composite curtainwall pile supported breakwaters presented optimal performance (the relative submerged water depth of the curtainwall pile supported breakwater: d1/h = 0.1 and d2/h=0.5; B/h (relative distance) = 0.5; f (friction coefficient) = 2.0, S (inertial coefficient) = 1.0; b/h (relative thickness) = 0.06; εv (porosity) = εh=0.6). Furthermore, the results showed that the ameliorated breakwaters rendered water surface steadier, reduced the amount of wave run-up caused by resonance in the internal structure, and lowered the possibility of breakwater damage. The curtain wall structure also enabled breakwaters to resist wave force.
author2 Yueh, Ching-Yun
author_facet Yueh, Ching-Yun
Yang, Yu-Chieh
楊喻傑
author Yang, Yu-Chieh
楊喻傑
spellingShingle Yang, Yu-Chieh
楊喻傑
Oblique incident wave interactions with composite curtainwall pile supported breakwaters
author_sort Yang, Yu-Chieh
title Oblique incident wave interactions with composite curtainwall pile supported breakwaters
title_short Oblique incident wave interactions with composite curtainwall pile supported breakwaters
title_full Oblique incident wave interactions with composite curtainwall pile supported breakwaters
title_fullStr Oblique incident wave interactions with composite curtainwall pile supported breakwaters
title_full_unstemmed Oblique incident wave interactions with composite curtainwall pile supported breakwaters
title_sort oblique incident wave interactions with composite curtainwall pile supported breakwaters
publishDate 2014
url http://ndltd.ncl.edu.tw/handle/99718373334958050508
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