Wind Farm Layout Optimisation using Set Based Multi-objective Bayesian Optimisation
Tinkle Chugh, Endi Ymeraj

TL;DR
This paper extends Bayesian multi-objective optimisation to set-based problems, specifically for wind farm layout optimisation, addressing multiple conflicting objectives and expensive simulations, and demonstrating its effectiveness on real data.
Contribution
It introduces a set-based kernel in Gaussian processes to adapt Bayesian optimisation for set-based design problems like wind farm layouts.
Findings
Set-based Bayesian optimisation effectively handles wind farm layout problems.
The approach captures correlations between different wind farm configurations.
Results show promising potential for real-world applications.
Abstract
Wind energy is one of the cleanest renewable electricity sources and can help in addressing the challenge of climate change. One of the drawbacks of wind-generated energy is the large space necessary to install a wind farm; this arises from the fact that placing wind turbines in a limited area would hinder their productivity and therefore not be economically convenient. This naturally leads to an optimisation problem, which has three specific challenges: (1) multiple conflicting objectives (2) computationally expensive simulation models and (3) optimisation over design sets instead of design vectors. The first and second challenges can be addressed by using surrogate-assisted e.g.\ Bayesian multi-objective optimisation. However, the traditional Bayesian optimisation cannot be applied as the optimisation function in the problem relies on design sets instead of design vectors. This paper…
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Taxonomy
TopicsAdvanced Multi-Objective Optimization Algorithms · Wind Energy Research and Development · Remote Sensing and LiDAR Applications
MethodsGaussian Process
