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Application of Higher Order Derivatives to Parameterization-
incollection
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Author(s)
Jean-Daniel Beley
, Stephane Garreau
, Frederic Thevenon
, Mohamed Masmoudi
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Published in Automatic Differentiation of Algorithms: From Simulation to Optimization
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Editor(s) George Corliss, Christèle Faure, Andreas Griewank, Laurent Hascoët, Uwe Naumann |
Year 2002 |
Publisher Springer |
Abstract Research on automatic differentiation is mainly motivated by gradient computation and optimization. However, in the optimal design area, it is quite difficult to use optimization tools. Some constraints (e.g. aesthetics constraints, manufacturing constraints) are quite difficult to describe by mathematical expressions. In practice, the optimal design process is a dialog between the designer and the analysis software (structural analysis, electromagnetism, computational fluid dynamics, etc.). One analysis may take a while. Hence, parameterization tools such as design of experiments (D.O.E.) and neural networks are used. The aim of those tools is to build surrogate models. We present a parameterization method based on higher order derivatives computation obtained by automatic differentiation. |
Cross-References Corliss2002ADo |
BibTeX
@INCOLLECTION{
Beley2002AoH,
author = "Jean-Daniel Beley and Stephane Garreau and Frederic Thevenon and Mohamed Masmoudi",
title = "Application of Higher Order Derivatives to Parameterization",
pages = "335--341",
chapter = "40",
crossref = "Corliss2002ADo",
booktitle = "Automatic Differentiation of Algorithms: From Simulation to Optimization",
year = "2002",
editor = "George Corliss and Christ{\`e}le Faure and Andreas Griewank and Laurent
Hasco{\"e}t and Uwe Naumann",
series = "Computer and Information Science",
publisher = "Springer",
address = "New York, NY",
abstract = "Research on automatic differentiation is mainly motivated by gradient computation
and optimization. However, in the optimal design area, it is quite difficult to use optimization
tools. Some constraints (e.g. aesthetics constraints, manufacturing constraints) are quite difficult
to describe by mathematical expressions. In practice, the optimal design process is a dialog between
the designer and the analysis software (structural analysis, electromagnetism, computational fluid
dynamics, etc.). One analysis may take a while. Hence, parameterization tools such as design of
experiments (D.O.E.) and neural networks are used. The aim of those tools is to build surrogate
models. We present a parameterization method based on higher order derivatives computation obtained
by automatic differentiation."
}
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