DocumentCode :
2171130
Title :
Dynamical Constrained Impulse System and application for designing discontinuous feedbacks
Author :
Saint-Pierre, Patrick
Author_Institution :
SDFi/VJC, LASTRE & VIMADES, Paris, France
fYear :
2007
fDate :
2-5 July 2007
Firstpage :
1300
Lastpage :
1305
Abstract :
Reaching a target while remaining in a given set for impulse dynamics can be characterized by a non deterministic controlled differential equation and a controlled instantaneous reset equation. The set of initial conditions from which a given objective can be reached and the optimal control ensuring both target capture and viability are computed using the Hybrid Guaranteed Capture Basin Algorithm. After recalling how this can be extended for solving optimal control problems in the presence of impulse and in the presence of uncertainty and giving two applications relevant to engineering and to finance, we apply these approach for designing discontinuous controls selected in the class of linear feedbacks for the double integrator problem which substantially improve the efficiency for controlling systems with the only P.I.D. regulation.
Keywords :
control system synthesis; differential equations; feedback; integration; linear systems; optimal control; sampled data systems; three-term control; transient response; uncertain systems; PID regulation; controlled instantaneous reset equation; discontinuous control design; discontinuous feedback design; double integrator problem; dynamical constrained impulse system; engineering; finance; hybrid guaranteed capture basin algorithm; impulse dynamics; initial conditions; linear feedbacks; nondeterministic controlled differential equation; optimal control problem; target capture; uncertainty; Contracts; Control systems; Cost accounting; Heuristic algorithms; Kernel; Portfolios; Uncertainty;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Control Conference (ECC), 2007 European
Conference_Location :
Kos
Print_ISBN :
978-3-9524173-8-6
Type :
conf
Filename :
7068918
Link To Document :
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