BibTeX
@ARTICLE{
Duarte2018Aab,
title = "An algorithm based on semidefinite programming for finding minimax optimal designs",
journal = "Computational Statistics \& Data Analysis",
pages = "99--117",
issn = "0167-9473",
doi = "https://doi.org/10.1016/j.csda.2017.09.008",
url = "http://www.sciencedirect.com/science/article/pii/S0167947317302086",
author = "Belmiro P.M. Duarte and Guillaume Sagnol and Weng Kee Wong",
keywords = "Cutting plane algorithm, Design efficiency, Equivalence theorem, Model-based
optimal design, Nonlinear programming",
abstract = "Abstract An algorithm based on a delayed constraint generation method for solving
semi-infinite programs for constructing minimax optimal designs for nonlinear models is proposed.
The outer optimization level of the minimax optimization problem is solved using a semidefinite
programming based approach that requires the design space be discretized. A nonlinear programming
solver is then used to solve the inner program to determine the combination of the parameters that
yields the worst-case value of the design criterion. The proposed algorithm is applied to find
minimax optimal designs for the logistic model, the flexible 4-parameter Hill homoscedastic model
and the general nth order consecutive reaction model, and shows that it (i) produces designs that
compare well with minimax D−optimal designs obtained from semi-infinite programming method
in the literature; (ii) can be applied to semidefinite representable optimality criteria, that
include the common A−,E−,G−,I− and D-optimality criteria;
(iii) can tackle design problems with arbitrary linear constraints on the weights; and (iv) is fast
and relatively easy to use.",
volume = "119",
year = "2018",
ad_area = "Optimization",
ad_tools = "ADiMat"
}
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