Model Predictive Control for Discrete-Event and Hybrid Systems - Part
II: Hybrid Systems
Reference
B. De Schutter and
T.J.J. van den Boom,
"Model Predictive Control for Discrete-Event and Hybrid Systems - Part
II: Hybrid Systems," Proceedings of the 16th
International Symposium on Mathematical Theory of Networks and Systems
(MTNS 2004), Leuven, Belgium, 10 pp., July 2004. Paper 313.
Abstract
Model predictive control (MPC) is a very popular controller design
method in the process industry. A key advantage of MPC is that it can
accommodate constraints on the inputs and outputs. Usually MPC uses
linear or nonlinear discrete-time models. In this paper and its
companion paper ("Part I: Discrete-Event Systems") we give an overview
of some results in connection with MPC approaches for some tractable
classes of discrete-event systems and hybrid systems. In general the
resulting optimization problems are nonlinear and nonconvex. However,
for some classes tractable solution methods exist. After having
discussed MPC for max-plus-linear discrete-event systems in the
companion paper, we now discuss MPC for some classes of hybrid
systems, viz. mixed logical dynamical systems, max-min-plus-scaling
systems, and continuous piecewise-affine systems.
Downloads
- Corresponding technical report:
pdf
file
(325 KB)
Companion paper
- B. De Schutter and T.J.J. van den Boom, "Model Predictive Control for
Discrete-Event and Hybrid Systems - Part I: Discrete-Event Systems," Proceedings of the 16th International Symposium on Mathematical
Theory of Networks and Systems (MTNS 2004), Leuven, Belgium, 10 pp.,
July 2004. Paper 312. (abstract, bibtex, tech. report
(pdf))
Bibtex entry
@inproceedings{DeSvan:04-004,
author={B. {D}e Schutter and T.J.J. van den Boom},
title={Model Predictive Control for Discrete-Event and Hybrid Systems -- {P}art
{II}: {H}ybrid Systems},
booktitle={Proceedings of the 16th International Symposium on Mathematical
Theory of Networks and Systems (MTNS 2004)},
address={Leuven, Belgium},
month=jul,
year={2004},
note={Paper 313}
}
This page is maintained by Bart De Schutter.
Last update: February 21, 2026.