Cost effective strategy using Kriging surrogates to compute fatigue at multiple locations of a structure: Application to offshore wind turbine certification

Offshore wind energy development has experienced a rapid development over the last few years encouraged by the of carbon reduction policy and the energy mix objectives of several countries worldwide. Nowadays, the offshore projects under investigation are composed of tens to hundreds of units reachi...

Full description

Bibliographic Details
Main Authors: Huchet Quentin, Mattrand Cécile, Beaurepaire Pierre, Relun Nicolas, Gayton Nicolas
Format: Article
Language:English
Published: EDP Sciences 2018-01-01
Series:MATEC Web of Conferences
Online Access:https://doi.org/10.1051/matecconf/201816517001
id doaj-84dfbe5bdbea4bfba58aba58e6995045
record_format Article
spelling doaj-84dfbe5bdbea4bfba58aba58e69950452021-02-02T01:54:03ZengEDP SciencesMATEC Web of Conferences2261-236X2018-01-011651700110.1051/matecconf/201816517001matecconf_fatigue2018_17001Cost effective strategy using Kriging surrogates to compute fatigue at multiple locations of a structure: Application to offshore wind turbine certificationHuchet QuentinMattrand CécileBeaurepaire PierreRelun NicolasGayton NicolasOffshore wind energy development has experienced a rapid development over the last few years encouraged by the of carbon reduction policy and the energy mix objectives of several countries worldwide. Nowadays, the offshore projects under investigation are composed of tens to hundreds of units reaching impressive dimensions with total rotor diameters from 150 to 220 meters and production capacity of 5 to 12 MW per turbine. Mechanical analyses have to be performed to validate the design regarding the solicitations it may face during its lifetime (20 years). Because of the high number of solicitation cycles the structure is confronted to, an estimation of the cumulated damage is mandatory and has to be carefully assessed. As presented in standards, this verification requires massive computation investments and is usually a challenging task for project engineers. This paper presents the “MultiSite” extension of the AK-DA numerical strategy (“Adaptive Kriging for Damage Assessment”). After being formalized, an illustration of its behaviour and performances is proposed for the validation of a design regarding its cumulated damages at different locations.https://doi.org/10.1051/matecconf/201816517001
collection DOAJ
language English
format Article
sources DOAJ
author Huchet Quentin
Mattrand Cécile
Beaurepaire Pierre
Relun Nicolas
Gayton Nicolas
spellingShingle Huchet Quentin
Mattrand Cécile
Beaurepaire Pierre
Relun Nicolas
Gayton Nicolas
Cost effective strategy using Kriging surrogates to compute fatigue at multiple locations of a structure: Application to offshore wind turbine certification
MATEC Web of Conferences
author_facet Huchet Quentin
Mattrand Cécile
Beaurepaire Pierre
Relun Nicolas
Gayton Nicolas
author_sort Huchet Quentin
title Cost effective strategy using Kriging surrogates to compute fatigue at multiple locations of a structure: Application to offshore wind turbine certification
title_short Cost effective strategy using Kriging surrogates to compute fatigue at multiple locations of a structure: Application to offshore wind turbine certification
title_full Cost effective strategy using Kriging surrogates to compute fatigue at multiple locations of a structure: Application to offshore wind turbine certification
title_fullStr Cost effective strategy using Kriging surrogates to compute fatigue at multiple locations of a structure: Application to offshore wind turbine certification
title_full_unstemmed Cost effective strategy using Kriging surrogates to compute fatigue at multiple locations of a structure: Application to offshore wind turbine certification
title_sort cost effective strategy using kriging surrogates to compute fatigue at multiple locations of a structure: application to offshore wind turbine certification
publisher EDP Sciences
series MATEC Web of Conferences
issn 2261-236X
publishDate 2018-01-01
description Offshore wind energy development has experienced a rapid development over the last few years encouraged by the of carbon reduction policy and the energy mix objectives of several countries worldwide. Nowadays, the offshore projects under investigation are composed of tens to hundreds of units reaching impressive dimensions with total rotor diameters from 150 to 220 meters and production capacity of 5 to 12 MW per turbine. Mechanical analyses have to be performed to validate the design regarding the solicitations it may face during its lifetime (20 years). Because of the high number of solicitation cycles the structure is confronted to, an estimation of the cumulated damage is mandatory and has to be carefully assessed. As presented in standards, this verification requires massive computation investments and is usually a challenging task for project engineers. This paper presents the “MultiSite” extension of the AK-DA numerical strategy (“Adaptive Kriging for Damage Assessment”). After being formalized, an illustration of its behaviour and performances is proposed for the validation of a design regarding its cumulated damages at different locations.
url https://doi.org/10.1051/matecconf/201816517001
work_keys_str_mv AT huchetquentin costeffectivestrategyusingkrigingsurrogatestocomputefatigueatmultiplelocationsofastructureapplicationtooffshorewindturbinecertification
AT mattrandcecile costeffectivestrategyusingkrigingsurrogatestocomputefatigueatmultiplelocationsofastructureapplicationtooffshorewindturbinecertification
AT beaurepairepierre costeffectivestrategyusingkrigingsurrogatestocomputefatigueatmultiplelocationsofastructureapplicationtooffshorewindturbinecertification
AT relunnicolas costeffectivestrategyusingkrigingsurrogatestocomputefatigueatmultiplelocationsofastructureapplicationtooffshorewindturbinecertification
AT gaytonnicolas costeffectivestrategyusingkrigingsurrogatestocomputefatigueatmultiplelocationsofastructureapplicationtooffshorewindturbinecertification
_version_ 1724310750632083456