bibtype |
J -
Journal Article
|
ARLID |
0382623 |
utime |
20240103201432.9 |
mtime |
20121107235959.9 |
WOS |
000312715000002 |
SCOPUS |
84871789562 |
DOI |
10.1007/s11045-011-0152-5 |
title
(primary) (eng) |
Distributed stabilisation of spatially invariant systems: positive polynomial approach |
specification |
|
serial |
ARLID |
cav_un_epca*0257286 |
ISSN |
0923-6082 |
title
|
Multidimensional Systems and Signal Processing |
volume_id |
24 |
page_num |
3-21 |
publisher |
|
|
keyword |
Multidimensional systems |
keyword |
Algebraic approach |
keyword |
Control design |
keyword |
Positiveness |
author
(primary) |
ARLID |
cav_un_auth*0213204 |
name1 |
Augusta |
name2 |
Petr |
full_dept (cz) |
Teorie řízení |
full_dept (eng) |
Department of Control Theory |
department (cz) |
TŘ |
department (eng) |
TR |
institution |
UTIA-B |
full_dept |
Department of Control Theory |
fullinstit |
Ústav teorie informace a automatizace AV ČR, v. v. i. |
|
author
|
ARLID |
cav_un_auth*0021097 |
name1 |
Hurák |
name2 |
Z. |
country |
CZ |
|
source |
|
cas_special |
project |
project_id |
1M0567 |
agency |
GA MŠk |
country |
CZ |
ARLID |
cav_un_auth*0202350 |
|
research |
CEZ:AV0Z10750506 |
abstract
(eng) |
The paper gives a computationally feasible characterisation of spatially distributed controllers stabilising a linear spatially invariant system, that is, a system described by linear partial differential equations with coefficients independent on time and location. With one spatial and one temporal variable such a system can be modelled by a 2-D transfer function. Stabilising distributed feedback controllers are then parametrised as a solution to the Diophantine equation ax + by = c for a given stable bi-variate polynomial c. The paper is built on the relationship between stability of a 2-D polynomial and positiveness of a related polynomial matrix on the unit circle. Such matrices are usually bilinear in the coefficients of the original polynomials. For low-order discrete-time systems it is shown that a linearising factorisation of the polynomial Schur-Cohn matrix exists. For higher order plants and/or controllers such factorisation is not possible as the solution set is non-convex and one has to resort to some relaxation. For continuous-time systems, an analogue factorisation of the polynomial Hermite-Fujiwara matrix is not known. |
reportyear |
2013 |
RIV |
BC |
num_of_auth |
2 |
mrcbC52 |
4 A 4a 20231122135256.9 |
inst_support |
RVO:67985556 |
permalink |
http://hdl.handle.net/11104/0212792 |
mrcbT16-e |
COMPUTERSCIENCETHEORYMETHODS|ENGINEERINGELECTRICALELECTRONIC |
mrcbT16-f |
1.420 |
mrcbT16-g |
0.400 |
mrcbT16-h |
6.V |
mrcbT16-i |
0.00096 |
mrcbT16-j |
0.512 |
mrcbT16-k |
355 |
mrcbT16-l |
35 |
mrcbT16-s |
0.810 |
mrcbT16-z |
ScienceCitationIndex |
mrcbT16-4 |
Q1 |
mrcbT16-B |
46.217 |
mrcbT16-C |
69.341 |
mrcbT16-D |
Q3 |
mrcbT16-E |
Q2 |
arlyear |
2013 |
mrcbTft |
\nSoubory v repozitáři: augusta-0382623.pdf |
mrcbU14 |
84871789562 SCOPUS |
mrcbU34 |
000312715000002 WOS |
mrcbU63 |
cav_un_epca*0257286 Multidimensional Systems and Signal Processing 0923-6082 1573-0824 Roč. 24 Č. 1 2013 3 21 Springer |
|