The Hull Strength of Marine Current Turbine Platform

Strength analysis of hull structure of marine renewable energy is crucial. The hull structure must be able to whitstand the harsh environmental load such as wave, wind and the weight of the payload and the structure itself. This paper analyzies the structural hull strength of marine current turbine...

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Main Authors: Achmad Baidowi, Irfan Syarif Arief, lintang candra lintang
Format: Article
Language:English
Published: Institut Teknologi Sepuluh Nopember 2018-06-01
Series:International Journal of Marine Engineering Innovation and Research
Subjects:
Online Access:http://iptek.its.ac.id/index.php/ijmeir/article/view/3482
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spelling doaj-51f34a5d9aa3439b8f3af607703756a02020-11-24T21:38:21ZengInstitut Teknologi Sepuluh NopemberInternational Journal of Marine Engineering Innovation and Research2541-59722548-14792018-06-012310.12962/j25481479.v2i3.34822689The Hull Strength of Marine Current Turbine PlatformAchmad BaidowiIrfan Syarif Arieflintang candra lintangStrength analysis of hull structure of marine renewable energy is crucial. The hull structure must be able to whitstand the harsh environmental load such as wave, wind and the weight of the payload and the structure itself. This paper analyzies the structural hull strength of marine current turbine platform. The platform is held by 4 mooring lines in 200 m water depth. The hull material is AISI1050 with yield stress 530MPa, the analysis consist of stress analysis which consider the dynamic motion of the platform due to wave, current, win and mooring line tension. The dynamic motion shows the maximum gravity acceleration is 1.3496G. The gravity acceleration creates additional loads due to weight multiplication of payload and structure. From the dynamic analysis using numerical software, the maximum mooring line tension due to dynamic analysis is 300.74 kN and this tension will creates stress in the moring line connection structure in the platform hull. The maximum stress of the is 126.045Pa, The mooring line tension is the highest loads compared to other factors such as weight. The safety factor of the structure based on the analysis is 4.2 which can be calculated by comparing the yield stress of the hull material and the maximum stress occurred due to dynamic loadhttp://iptek.its.ac.id/index.php/ijmeir/article/view/3482Hull stressDynamic loadMarine Current turbine
collection DOAJ
language English
format Article
sources DOAJ
author Achmad Baidowi
Irfan Syarif Arief
lintang candra lintang
spellingShingle Achmad Baidowi
Irfan Syarif Arief
lintang candra lintang
The Hull Strength of Marine Current Turbine Platform
International Journal of Marine Engineering Innovation and Research
Hull stress
Dynamic load
Marine Current turbine
author_facet Achmad Baidowi
Irfan Syarif Arief
lintang candra lintang
author_sort Achmad Baidowi
title The Hull Strength of Marine Current Turbine Platform
title_short The Hull Strength of Marine Current Turbine Platform
title_full The Hull Strength of Marine Current Turbine Platform
title_fullStr The Hull Strength of Marine Current Turbine Platform
title_full_unstemmed The Hull Strength of Marine Current Turbine Platform
title_sort hull strength of marine current turbine platform
publisher Institut Teknologi Sepuluh Nopember
series International Journal of Marine Engineering Innovation and Research
issn 2541-5972
2548-1479
publishDate 2018-06-01
description Strength analysis of hull structure of marine renewable energy is crucial. The hull structure must be able to whitstand the harsh environmental load such as wave, wind and the weight of the payload and the structure itself. This paper analyzies the structural hull strength of marine current turbine platform. The platform is held by 4 mooring lines in 200 m water depth. The hull material is AISI1050 with yield stress 530MPa, the analysis consist of stress analysis which consider the dynamic motion of the platform due to wave, current, win and mooring line tension. The dynamic motion shows the maximum gravity acceleration is 1.3496G. The gravity acceleration creates additional loads due to weight multiplication of payload and structure. From the dynamic analysis using numerical software, the maximum mooring line tension due to dynamic analysis is 300.74 kN and this tension will creates stress in the moring line connection structure in the platform hull. The maximum stress of the is 126.045Pa, The mooring line tension is the highest loads compared to other factors such as weight. The safety factor of the structure based on the analysis is 4.2 which can be calculated by comparing the yield stress of the hull material and the maximum stress occurred due to dynamic load
topic Hull stress
Dynamic load
Marine Current turbine
url http://iptek.its.ac.id/index.php/ijmeir/article/view/3482
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