Multiobjective Optimisation and Integrated Design of Wind Turbine Blades Using WTBM-ANSYS for High Fidelity Structural Analysis

Alireza Maheri (Corresponding Author)

Research output: Contribution to journalArticle

Abstract

Multiobjective optimisation and integrated aerodynamic-structural design of wind turbine blades are emerging approaches, both requiring significant number of high fidelity analyses. Designer-in-the loop blade modelling and pre/ post-processing using specialised software is the bottleneck of high fidelity analysis and therefore a major obstacle in performing a robust optimisation, where thousands of high fidelity analyses are required to find the optimum solution. Removing this bottleneck is the driver for the development of WTBM, an automated wind turbine blade modeller. WTBM takes parameters defining the blade and its operating condition as inputs and generates pre-processor, solver and post-processor APDL files required by ANSYS for high fidelity analysis. The inputs can be generated automatically within an optimisation process, hence so can be the APDL files, allowing a fully automated optimisation in which any of the parameters which are required to define the size, topology, structure and material of a blade to be treated as a design variable. The solver parameters will be also updated automatically as necessary. The performance of WTBM19 ANSYS in conducting hundreds of automated high fidelity analyses within an optimisation process is shown through multiobjective structural design and multiobjective integrated design case studies.
Original languageEnglish
Pages (from-to)814-834
Number of pages21
JournalRenewable Energy
Volume145
Early online date6 Jun 2019
DOIs
Publication statusPublished - 1 Jan 2020

Keywords

  • WTBM
  • blade modelling
  • integrated design
  • multiobjective optimisation
  • ANSYS APDL
  • automated high fidelity analysis
  • Integrated design
  • Multiobjective optimisation
  • Automated high fidelity analysis
  • Blade modelling
  • NUMBER
  • PERFORMANCE
  • PARAMETERS
  • SIMULATION
  • AERODYNAMIC SHAPE OPTIMIZATION

ASJC Scopus subject areas

  • Renewable Energy, Sustainability and the Environment

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