Feedback Minimum Principle for Impulsive Processes

We consider an optimal impulsive control problem with a terminal functional and trajectories of bounded variation. The control system we consider has a bilinear structure with respect to the state and control variables and is governed by nonnegative vector Borel measures under constraints on their t...

Full description

Bibliographic Details
Main Authors: V.A. Dyhta, O.N. Samsonyuk
Format: Article
Language:English
Published: Irkutsk State University 2018-09-01
Series:Известия Иркутского государственного университета: Серия "Математика"
Subjects:
Online Access:http://mathizv.isu.ru/assets/articles/6d2ab2cf-98e8-4fbd-bbee-d8f9fbe115f9.pdf
id doaj-063648824df242809d02c1910b639e4e
record_format Article
spelling doaj-063648824df242809d02c1910b639e4e2020-11-25T02:17:46ZengIrkutsk State UniversityИзвестия Иркутского государственного университета: Серия "Математика" 1997-76702541-87852018-09-012514662https://doi.org/10.26516/1997-7670.2018.25.46Feedback Minimum Principle for Impulsive ProcessesV.A. DyhtaO.N. SamsonyukWe consider an optimal impulsive control problem with a terminal functional and trajectories of bounded variation. The control system we consider has a bilinear structure with respect to the state and control variables and is governed by nonnegative vector Borel measures under constraints on their total variation. This problem is the impulsive-trajectory extension for the corresponding classical optimal control problem, which, in general, does not have optimal solutions with measurable controls. We do not posit any commutativity assumptions guaranteeing the well-posedness property for the impulsive extension. The so-called singular space-time transformation is used to define an individual trajectory and transform the impulsive system to an auxiliary ordinary control system. The aim of this paper is to prove a nonlocal necessary optimality condition for impulsive processes. This condition is based on feedback controls providing descent directions for the functional. This necessary condition is called the feedback minimum principle. It is a generalization of the corresponding principle for classical optimal control problems. The feedback minimum principle is formulated within the framework of the generalized maximum principle for impulsive processes. An example illustrating the optimality condition is considered.http://mathizv.isu.ru/assets/articles/6d2ab2cf-98e8-4fbd-bbee-d8f9fbe115f9.pdfimpulsive controltrajectory of bounded variationfeedback controloptimality condition
collection DOAJ
language English
format Article
sources DOAJ
author V.A. Dyhta
O.N. Samsonyuk
spellingShingle V.A. Dyhta
O.N. Samsonyuk
Feedback Minimum Principle for Impulsive Processes
Известия Иркутского государственного университета: Серия "Математика"
impulsive control
trajectory of bounded variation
feedback control
optimality condition
author_facet V.A. Dyhta
O.N. Samsonyuk
author_sort V.A. Dyhta
title Feedback Minimum Principle for Impulsive Processes
title_short Feedback Minimum Principle for Impulsive Processes
title_full Feedback Minimum Principle for Impulsive Processes
title_fullStr Feedback Minimum Principle for Impulsive Processes
title_full_unstemmed Feedback Minimum Principle for Impulsive Processes
title_sort feedback minimum principle for impulsive processes
publisher Irkutsk State University
series Известия Иркутского государственного университета: Серия "Математика"
issn 1997-7670
2541-8785
publishDate 2018-09-01
description We consider an optimal impulsive control problem with a terminal functional and trajectories of bounded variation. The control system we consider has a bilinear structure with respect to the state and control variables and is governed by nonnegative vector Borel measures under constraints on their total variation. This problem is the impulsive-trajectory extension for the corresponding classical optimal control problem, which, in general, does not have optimal solutions with measurable controls. We do not posit any commutativity assumptions guaranteeing the well-posedness property for the impulsive extension. The so-called singular space-time transformation is used to define an individual trajectory and transform the impulsive system to an auxiliary ordinary control system. The aim of this paper is to prove a nonlocal necessary optimality condition for impulsive processes. This condition is based on feedback controls providing descent directions for the functional. This necessary condition is called the feedback minimum principle. It is a generalization of the corresponding principle for classical optimal control problems. The feedback minimum principle is formulated within the framework of the generalized maximum principle for impulsive processes. An example illustrating the optimality condition is considered.
topic impulsive control
trajectory of bounded variation
feedback control
optimality condition
url http://mathizv.isu.ru/assets/articles/6d2ab2cf-98e8-4fbd-bbee-d8f9fbe115f9.pdf
work_keys_str_mv AT vadyhta feedbackminimumprincipleforimpulsiveprocesses
AT onsamsonyuk feedbackminimumprincipleforimpulsiveprocesses
_version_ 1724885194839687168