BibTeX
@ARTICLE{
Barton2018Crg,
crossref = "Christianson2018Sio",
author = "Paul I. Barton and Kamil A. Khan and Peter Stechlinski and Watson, Harry A. J.",
title = "Computationally relevant generalized derivatives: theory, evaluation and
applications",
journal = "Optimization Methods \& Software",
volume = "33",
number = "4--6",
pages = "1030--1072",
year = "2018",
publisher = "Taylor \& Francis",
doi = "10.1080/10556788.2017.1374385",
url = "https://doi.org/10.1080/10556788.2017.1374385",
eprint = "https://doi.org/10.1080/10556788.2017.1374385",
abstract = "A new method for evaluating generalized derivatives in nonsmooth problems is
reviewed. Lexicographic directional (LD-)derivatives are a recently developed tool in nonsmooth
analysis for evaluating generalized derivative elements in a tractable and robust way. Applicable to
problems in both steady-state and dynamic settings, LD-derivatives exhibit a number of advantages
over current theory and algorithms. As highlighted in this article, the LD-derivative approach now
admits a suitable theory for inverse and implicit functions, nonsmooth dynamical systems and
optimization problems, among others. Moreover, this technique includes an extension of the standard
vector forward mode of automatic differentiation (AD) and acts as the natural extension of classical
calculus results to the nonsmooth case in many ways. The theory of LD-derivatives is placed in the
context of state-of-the-art methods in nonsmooth analysis, with an application in multistream heat
exchanger modelling and design used to illustrate the usefulness of the approach.",
booktitle = "Special issue of Optimization Methods \& Software: Advances in
Algorithmic Differentiation",
editor = "Bruce Christianson and Shaun A. Forth and Andreas Griewank",
ad_theotech = "Generalized Jacobian"
}
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