2019
DOI: 10.1016/j.jqsrt.2019.106643
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Gaussian process and design of experiments for surrogate modeling of optical properties of fractal aggregates

Abstract: A systematic approach based on the principles of supervised learning and design of experiments concepts is introduced to build a surrogate model for estimating the optical properties of fractal aggregates. The surrogate model is built on Gaussian process (GP) regression, and the input points for the GP regression are sampled with an adaptive sequential design algorithm. The covariance functions used are the squared exponential covariance function and the Matern covariance function both with Automatic Relevance… Show more

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Cited by 8 publications
(1 citation statement)
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“…Achieving an accurate surrogate model demands adequate input and output data. Given the cost of experimental work, training points are often generated through precise numerical simulations that consider several parameters for an observation, which can require considerable computation time [14,15]. Concerning the computational costs, recently, surrogate models was used to optimize the design of aerodynamic shapes, significantly reducing the computational effort required for each design evaluation [16].…”
Section: Metamodelingmentioning
confidence: 99%
“…Achieving an accurate surrogate model demands adequate input and output data. Given the cost of experimental work, training points are often generated through precise numerical simulations that consider several parameters for an observation, which can require considerable computation time [14,15]. Concerning the computational costs, recently, surrogate models was used to optimize the design of aerodynamic shapes, significantly reducing the computational effort required for each design evaluation [16].…”
Section: Metamodelingmentioning
confidence: 99%