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Speed-gradient approach to modeling dynamics of physical systems. / Fradkov, Alexander.

European Control Conference, ECC 2003. Institute of Electrical and Electronics Engineers Inc., 2003. стр. 441-444 7084994 (European Control Conference, ECC 2003).

Результаты исследований: Публикации в книгах, отчётах, сборниках, трудах конференций › статья в сборнике материалов конференции › научная › Рецензирование

Harvard

Fradkov, A 2003, Speed-gradient approach to modeling dynamics of physical systems. в European Control Conference, ECC 2003., 7084994, European Control Conference, ECC 2003, Institute of Electrical and Electronics Engineers Inc., стр. 441-444, 2003 European Control Conference, ECC 2003, Cambridge, Великобритания, 1/09/03. https://doi.org/10.23919/ecc.2003.7084994

APA

Fradkov, A. (2003). Speed-gradient approach to modeling dynamics of physical systems. в European Control Conference, ECC 2003 (стр. 441-444). [7084994] (European Control Conference, ECC 2003). Institute of Electrical and Electronics Engineers Inc.. https://doi.org/10.23919/ecc.2003.7084994

Vancouver

Fradkov A. Speed-gradient approach to modeling dynamics of physical systems. в European Control Conference, ECC 2003. Institute of Electrical and Electronics Engineers Inc. 2003. стр. 441-444. 7084994. (European Control Conference, ECC 2003). https://doi.org/10.23919/ecc.2003.7084994

Author

Fradkov, Alexander. / Speed-gradient approach to modeling dynamics of physical systems. European Control Conference, ECC 2003. Institute of Electrical and Electronics Engineers Inc., 2003. стр. 441-444 (European Control Conference, ECC 2003).

BibTeX

@inproceedings{b841f31a9e704f14985c99cb19b19d31,
title = "Speed-gradient approach to modeling dynamics of physical systems",
abstract = "The Speed-gradient approach to building dynamical models of physical systems is described. It is based on the Speed-gradient principle: Among all possible motions only those are realized for which the input variables change proportionally to the speed gradient of appropriate goal functional. Application of the principle is demonstrated by examples: motion of a particle in the potential field; wave, diffusion and heat transfer equations; viscous flow equation. Based on the Speedgradient principle the proof of the Onzagger principle from thermodynamics and its extension to a class of systems far from equilibrium are given.",
keywords = "Dynamics, Modeling, Onzagger principle, Speed-gradient method, Thermodynamics",
author = "Alexander Fradkov",
note = "Publisher Copyright: {\textcopyright} 2003 EUCA.; 2003 European Control Conference, ECC 2003 ; Conference date: 01-09-2003 Through 04-09-2003",
year = "2003",
month = apr,
day = "13",
doi = "10.23919/ecc.2003.7084994",
language = "English",
series = "European Control Conference, ECC 2003",
publisher = "Institute of Electrical and Electronics Engineers Inc.",
pages = "441--444",
booktitle = "European Control Conference, ECC 2003",
address = "United States",

}

RIS

TY - GEN

T1 - Speed-gradient approach to modeling dynamics of physical systems

AU - Fradkov, Alexander

N1 - Publisher Copyright: © 2003 EUCA.

PY - 2003/4/13

Y1 - 2003/4/13

N2 - The Speed-gradient approach to building dynamical models of physical systems is described. It is based on the Speed-gradient principle: Among all possible motions only those are realized for which the input variables change proportionally to the speed gradient of appropriate goal functional. Application of the principle is demonstrated by examples: motion of a particle in the potential field; wave, diffusion and heat transfer equations; viscous flow equation. Based on the Speedgradient principle the proof of the Onzagger principle from thermodynamics and its extension to a class of systems far from equilibrium are given.

AB - The Speed-gradient approach to building dynamical models of physical systems is described. It is based on the Speed-gradient principle: Among all possible motions only those are realized for which the input variables change proportionally to the speed gradient of appropriate goal functional. Application of the principle is demonstrated by examples: motion of a particle in the potential field; wave, diffusion and heat transfer equations; viscous flow equation. Based on the Speedgradient principle the proof of the Onzagger principle from thermodynamics and its extension to a class of systems far from equilibrium are given.

KW - Dynamics

KW - Modeling

KW - Onzagger principle

KW - Speed-gradient method

KW - Thermodynamics

UR - http://www.scopus.com/inward/record.url?scp=84949094176&partnerID=8YFLogxK

U2 - 10.23919/ecc.2003.7084994

DO - 10.23919/ecc.2003.7084994

M3 - Conference contribution

AN - SCOPUS:84949094176

T3 - European Control Conference, ECC 2003

SP - 441

EP - 444

BT - European Control Conference, ECC 2003

PB - Institute of Electrical and Electronics Engineers Inc.

T2 - 2003 European Control Conference, ECC 2003

Y2 - 1 September 2003 through 4 September 2003

ER -

ID: 88354688