Analysis and controller-design of time-delay systems using TDS-CONTROL. A tutorial and manual
TDS-CONTROL is an integrated MATLAB package for the analysis and controller-design of linear time-invariant (LTI) dynamical systems with (multiple) discrete delays, supporting both systems of retarded and neutral type. TDS-CONTROL is based on a state-space representations for these TDSs, although fu...
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Zusammenfassung: | TDS-CONTROL is an integrated MATLAB package for the analysis and
controller-design of linear time-invariant (LTI) dynamical systems with
(multiple) discrete delays, supporting both systems of retarded and neutral
type. TDS-CONTROL is based on a state-space representations for these TDSs,
although functionality is provided to obtain such a formulation from a
frequency-domain description of the system. Firstly, the package offers various
functionality for analyzing such systems, like methods for computing the
spectral abscissa, the H-infinity norm, the pseudospectral abscissa, and the
distance to instability. Furthermore, as TDS-CONTROL is designed with neutral
time-delay systems in mind, it has the appealing feature that the sensitivity
of certain quantities (such as the spectral abscissa) with respect to
infinitesimal delay perturbations can explicitly be taken into account.
Secondly, TDS-CONTROL also allows to design fixed-order dynamic output feedback
controllers. The corresponding controller-design algorithms are based on
minimizing the spectral abscissa, the H-infinity norm, or a combination of both
with respect to the free controller parameters by solving a non-smooth,
non-convex optimization problem. As a strictly negative spectral abscissa is a
necessary and sufficient condition for stability, the presented design methods
are thus not conservative. It is also possible to impose structure on the
controller, enabling the design of decentralized and
proportional-integral-derivative (PID) controllers. Furthermore, by allowing
the plant to be described in delay descriptor form (i.e., the system's dynamics
are given in terms of delay differential algebraic equations), acceleration
feedback and Pyragas-type and delay-based controllers can also be considered. |
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DOI: | 10.48550/arxiv.2305.00341 |