@Article{HollwegEvMaBoTaMo:2023:SeMeAd,
author = "Hollweg, Guilherme Vieira and Evald, Paulo Jefferson Dias de
Oliveira and Mattos, Everson and Borin, Lucas Cielo and Tambara,
Rodrigo Varella and Montagner, Vinicius Foletto",
affiliation = "{University of Michigan} and Universidade Federal de Pelotas,
(UFPel) and {Instituto Nacional de Pesquisas Espaciais (INPE)} and
{Universidade Federal de Santa Maria (UFSM)} and {Universidade
Federal de Santa Maria (UFSM)} and {Universidade Federal de Santa
Maria (UFSM)}",
title = "Self-tuning methodology for adaptive controllers based on genetic
algorithms applied for grid-tied power converters",
journal = "Control Engineering Practice",
year = "2023",
volume = "135",
pages = "105500",
keywords = "Optimal parametrization, Genetic algorithm, Robust model reference
adaptive control, Sliding mode control, Super-twisting.",
abstract = "The performance and stability of adaptive controllers is highly
dependent on its parameter initialization. For non-expert
designers, the parametrization of these controllers can be highly
time consuming and an exhausting task. In order to improve the
response of adaptive controllers without needing more specialized
knowledge, this work proposes a procedure for self-tuning (optimal
parametrization) of direct type adaptive controllers using a
genetic algorithm. The proposal does not harm any property of
stability and convergence of the adaptive strategy, only adding an
off-line stage of parameter selection, which is carried out in a
reasonable computational time. As a case study, this self-tuning
procedure is applied for initialization of nine parameters of a
Robust Model Reference Adaptive Controller and Adaptive
Super-Twisting Sliding Mode, a known adaptive structure from the
literature, suitable for current regulation of three-phase voltage
source converters operating under grid impedance variations. For
comparison with the proposed self-tuning, a similar procedure
using fmincon and simulated annealing algorithms are also tested.
The experimental results show that the proposed procedure using
Genetic Algorithm can provide lower tracking error, faster
regulation dynamics and reduced settling time, leading to better
performance than the same controller with parameters initialized
empirically.",
doi = "10.1016/j.conengprac.2023.105500",
url = "http://dx.doi.org/10.1016/j.conengprac.2023.105500",
issn = "0967-0661",
label = "lattes: 5932117211446307 3 HollwegOlMaBoTaMo:2023:SeMeAd",
language = "en",
targetfile = "1-s2.0-S0967066123000692-main.pdf",
urlaccessdate = "12 maio 2024"
}