Einladung zum Vortrag im Kolloquium Technische Kybernetik
Optimal on-line control under imperfect information
Dr. Natalia Dmitruk
Institute of Mathematics
National Academy of Sciences of Belarus
Minsk, Belarus
Zeit: Dienstag · 30. 8. 2005 · 16:00 Uhr
Ort: Raum V 9.31 · Pfaffenwaldring 9 · Campus Stuttgart-Vaihingen
Abstract
One of the central problems of the mathematical optimal control theory is the
optimal synthesis problem. While in the concept of classical closed-loop
principle there are no effective methods for solving the problem of synthesis
of optimal feedbacks for general control systems, in the framework of on-line
control principle feedbacks of desired properties can be constructed. In this
talk we shall present an approach to optimal on-line control of dynamical
systems suggested in the Belarussian State University and the Institute of
Mathematics of the National Academy of Sciences of Belarus. Main attention will
be given to linear time-varying optimal control systems incorporating
uncertainties and disturbances where state measurements are impossible and
optimal controls have to be constructed by using incomplete and inexact
measurements of a sensor. The approach incorporates real-time estimations of
unknown parameters based on sensor observations together with constructive
methods of optimization. Some ideas for developing the approach to on-line
control of large-scale dynamical systems and systems described by differential
equations with distributed parameters will be discussed.
Biographical Information
Natalia Dmitruk graduated in Applied Mathematics from the Belarussian State
University in Minsk in 1997 and received the Ph.D. degree in Mathematics at the
Institute of Mathematics of the National Academy of Sciences of Belarus. Since
1997 she has held the position at the Institute of Mathematics and since 2000
she was Assistant Professor at the Belarussian State University. In 2004 she
was with Institute of Calculus Application, Bari under CNR-NATO Fellowship. Her
main research interests include optimal control theory, optimal state and
measurement feedback construction and state estimation.
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