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Automatic Differentiation Applied for Optimization of Dynamical Systems-
Part of a collection
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Area Dynamical Systems, Electrical Engineering |
Author(s)
Petre Enciu
, Laurent Gerbaud
, Frédéric Wurtz
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Published in COMPUMAG 09, 17th Conference on the Computation of Electromagnetic Fields
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Year 2009 |
Abstract Abstract—Simulation is ubiquitous in many scientific areas. Applied for dynamic systems usually by employing differential equations, it gives the time evolution of system states. In order to solve such problems, numerical integration algorithms are often required. Automatic Differentiation (ad) is introduced as a powerful technique to compute derivatives of functions given in the form of computer programs in a high level programming lan- guage such as FORTRAN, C or C++. Such technique fits perfectly in combination with gradient based optimization algorithms, provided that the derivatives are valued with no truncation or cancellation error. This paper intends to use Automatic Differentiation employed for numerical integration schemes of dynamical systems simulating electromechanical actuators. Then, the resulting derivatives are used for sizing such devices by means of gradient based constrained optimization. |
AD Tools ADOL-C |
BibTeX
@INPROCEEDINGS{
Enciu2009ADA,
title = "Automatic Differentiation Applied for Optimization of Dynamical Systems",
author = "Petre Enciu and Laurent Gerbaud and Fr{\'e}d{\'e}ric Wurtz",
year = "2009",
booktitle = "COMPUMAG 09, 17th Conference on the Computation of Electromagnetic Fields",
pages = "249--250",
abstract = "Abstract—Simulation is ubiquitous in many scientific areas. Applied for
dynamic systems usually by employing differential equations, it gives the time evolution of system
states. In order to solve such problems, numerical integration algorithms are often required.
Automatic Differentiation (AD) is introduced as a powerful technique to compute derivatives of
functions given in the form of computer programs in a high level programming lan- guage such as
FORTRAN, C or C++. Such technique fits perfectly in combination with gradient based optimization
algorithms, provided that the derivatives are valued with no truncation or cancellation error. This
paper intends to use Automatic Differentiation employed for numerical integration schemes of
dynamical systems simulating electromechanical actuators. Then, the resulting derivatives are used
for sizing such devices by means of gradient based constrained optimization.",
ad_area = "Dynamical Systems, Electrical Engineering",
ad_tools = "ADOL-C"
}
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