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230107s2023 sz o 000 0 eng d |
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|a EBLCP
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|a 1356877928
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|a 9783030968892
|q (electronic bk.)
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|a 3030968898
|q (electronic bk.)
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|z 9783030968885
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|z 303096888X
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|a 10.1007/978-3-030-96889-2
|2 doi
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|a (OCoLC)1357018020
|z (OCoLC)1356877928
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|a TJ820
|b .L45 2023eb
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|a THX
|2 bicssc
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|a TEC031010
|2 bisacsh
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|a THVW
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|a HCDD
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|a Leimeister, Mareike.
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|a Reliability-based optimization of floating wind turbine support structures /
|c Mareike Leimeister.
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260 |
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|a Cham :
|b Springer,
|c 2023.
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300 |
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|a 1 online resource (336 p.).
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490 |
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|a Springer Theses
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|a Description based upon print version of record.
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|a Intro -- Supervisors' Foreword -- Abstract -- Acknowledgements -- Contents -- Nomenclature -- Latin Symbols -- Greek Symbols -- Abbreviations -- List of Figures -- List of Tables -- 1 Introduction -- 1.1 Potential of Floating Offshore Wind Technology -- 1.2 Challenges Towards Next Generation Floating Offshore Wind Turbines -- 1.3 Aim and Objectives -- 1.4 Thesis Structure -- 1.5 Publications in Connection with the Research Thesis -- References -- 2 Review of Reliability-Based Risk Analysis Methods Used in the Offshore Wind Industry -- 2.1 Classification of Reliability Methods
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|a 2.1.1 Qualitative Reliability Methods -- 2.1.2 Semi-Quantitative Reliability Methods -- 2.1.3 Quantitative Reliability Methods -- 2.2 Approaches for Qualitative Reliability Analyses of Offshore Wind Turbine Systems -- 2.2.1 Failure Mode Analyses -- 2.2.2 Tree-Shaped, Diagrammatic, and Graphical Analyses -- 2.2.3 Hazard Analyses -- 2.3 Approaches for Quantitative Reliability Analyses of Offshore Wind Turbine Systems -- 2.3.1 Analytical Methods -- 2.3.2 Stochastic Methods -- 2.3.3 Bayesian Inference -- 2.3.4 Reliability-Based Design Optimization -- 2.3.5 Multivariate Analyses
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|a 2.3.6 Data Foundations -- 2.4 Discussion of Reliability Methods for Offshore Wind Turbine Systems -- References -- 3 Floating Offshore Wind Turbine Systems -- 3.1 Critical Review of Floating Support Structures Focusing on Offshore Wind Farm Deployment -- 3.1.1 Review of FOWT Support Structures -- 3.1.2 Assessment of FOWT Support Structures -- 3.2 Reference Spar-Buoy Floating Wind Turbine System -- 3.2.1 Wind Turbine and Tower -- 3.2.2 Floating Structure and Station-Keeping System -- References -- 4 Modeling, Automated Simulation, and Optimization
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|a 4.1 Development and Verification of a Numerical FOWT System Model of Dynamics -- 4.1.1 Numerical Modeling of the Reference Spar-Buoy FOWT System in MoWiT -- 4.1.2 Code-to-Code Comparison -- 4.1.3 Discussion of the Code-to-Code Comparison Results -- 4.2 Development of a Numerical Framework for Wind Turbine Design and Optimization -- 4.2.1 Framework for Automated Simulation -- 4.2.2 Application for DLC Simulations -- 4.2.3 Incorporation of Optimization Functionalities -- 4.2.4 Discussion of the Broad Application Range of the Framework to Wind Turbine System Optimization Tasks
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|a 4.3 Appendix to Chap. 4 -- 4.3.1 Statistics of DLC 4.2 -- 4.3.2 Statistics of DLC 5.3 -- References -- 5 Design Optimization of Floating Wind Turbine Support Structures -- 5.1 Design Optimization Based on Global Limit States -- 5.1.1 Description of the System to Optimize -- 5.1.2 Optimization Problem of the Global Design Optimization Task -- 5.1.3 Optimization Approach for the Design Optimization Based on Global Limit States -- 5.1.4 Results of the Design Optimization Based on Global Limit States -- 5.1.5 Discussion of the Design Optimization Approach Based on Global Limit States
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|a 5.2 Designing a Complex Geometry Spar-Type FOWT Support Structure
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|a This book pursues the ambitious goal of combining floating wind turbine design optimization and reliability assessment, which has in fact not been done before. The topic is organized into a series of very ambitious objectives, which start with an initial state-of-the-art review, followed by the development of high-fidelity frameworks for a disruptive way to design next generation floating offshore wind turbine (FOWT) support structures. The development of a verified aero-hydro-servo-elastic coupled numerical model of dynamics for FOWTs and a holistic framework for automated simulation and optimization of FOWT systems, which is later used for the coupling of design optimization with reliability assessment of FOWT systems in a computationally and time-efficient manner, has been an aim of many groups internationally towards implementing a performance-based/goal-setting approach in the design of complex engineering systems. The outcomes of this work quantify the benefits of an optimal design with a lower mass while fulfilling design constraints. Illustrating that comprehensive design methods can be combined with reliability analysis and optimization algorithms towards an integrated reliability-based design optimization (RBDO) can benefit not only the offshore wind energy industry but also other applications such as, among others, civil infrastructure, aerospace, and automotive engineering.
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650 |
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|a Offshore wind power plants
|x Design and construction.
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650 |
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|a Offshore wind power plants
|x Mathematical models.
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650 |
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|a Mathematical optimization.
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650 |
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|a Reliability (Engineering)
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650 |
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7 |
|a Mathematical optimization
|2 fast
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650 |
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|a Reliability (Engineering)
|2 fast
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655 |
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|a Electronic books.
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776 |
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8 |
|i Print version:
|a Leimeister, Mareike
|t Reliability-Based Optimization of Floating Wind Turbine Support Structures
|d Cham : Springer International Publishing AG,c2023
|z 9783030968885
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830 |
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0 |
|a Springer theses.
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856 |
4 |
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|u https://holycross.idm.oclc.org/login?auth=cas&url=https://link.springer.com/10.1007/978-3-030-96889-2
|y Click for online access
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|a SPRING-ENERGY2022
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|a 92
|b HCD
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