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Kriging-Bat design optimization algorithm for floating offshore w | 55890
Journal of Fundamentals of Renewable Energy and Applications

Journal of Fundamentals of Renewable Energy and Applications
Open Access

ISSN: 2090-4541

+44 1300 500008

Kriging-Bat design optimization algorithm for floating offshore wind turbine support structures


International Conference on Renewable Energy and Resources

July 24-25, 2017 Vancouver, Canada

Abdulbaset Saad, Adel Younis, Meysam Karimi, Marziyeh Nazari, Zuomin Dong, Brad Buckham and Curran Crawford

University of Victoria, Canada
Australian College of Kuwait, Kuwait

Scientific Tracks Abstracts: J Fundam Renewable Energy Appl

Abstract :

This paper presents a modified Bat design optimization approach based Kriging meta-model for determining the optimum design parameters for floating wind turbines that includes a design space spanning three stability classes of floating wind turbine support structures. In order to optimize such complex system, efficient and robust design optimization algorithm named, Kriging-Bat design optimization algorithm, where Kriging meta-model is introduced to Bat algorithm and used to search the design space for optimal designs has recently been developed for such problem. In order to provide a relatively complete exploration of the design space, a single design parameterization scheme was used to define the geometries of tension-leg, spar buoy and semi-submersible candidate designs. Evaluation of the newly proposed algorithm was carried out by comparing the obtained results that is minimizing the cost of floating wind turbines against other optimization algorithm such as Differential Evolution (DE). Optimization results for the single-body platforms indicated a dominance of tension-leg platforms in this subset of the design space. Results for multi-body platforms showed that semi-submersible platforms with four oats are more stable and cost effective than other semi-submersible designs. In general, the full exploration of the design space demonstrated that four oat semi-submersible platforms with angled taut mooring systems are a promising concept that can be used as a foundation for a detailed design process. This optimization approach has been proved to be efficient and robust in solving complex renewable energy applications and therefore suggests a promising avenue to pursue in more details.

Biography :

Abdulbaset Saad is a PhD candidate in the mechanical engineering department at the University of Victoria, British Columbia in Canada. He is working on developing global optimization algorithms for complex engineering problems. He has developed new optimization methods and used them in solving renewable energy engineering problems.

Email: ayounis@ack.edu.kw

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