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Autonomous Motion Intelligent Control Systems Article Wenn es was zu sagen gibt Trimpe, S. Bild der Wissenschaft, 20-23, November 2014, (popular science article in German) PDF BibTeX

Autonomous Motion Intelligent Control Systems Article A Limiting Property of the Matrix Exponential Trimpe, S., D’Andrea, R. IEEE Transactions on Automatic Control, 59(4):1105-1110, 2014 (Published) PDF DOI BibTeX

Autonomous Motion Intelligent Control Systems Conference Paper A Self-Tuning LQR Approach Demonstrated on an Inverted Pendulum Trimpe, S., Millane, A., Doessegger, S., D’Andrea, R. In Proceedings of the 19th IFAC World Congress, Cape Town, South Africa, 2014 (Published) PDF Supplementary material DOI BibTeX

Autonomous Motion Intelligent Control Systems Conference Paper Stability Analysis of Distributed Event-Based State Estimation Trimpe, S. In Proceedings of the 53rd IEEE Conference on Decision and Control, Los Angeles, CA, 2014 (Published)
An approach for distributed and event-based state estimation that was proposed in previous work [1] is analyzed and extended to practical networked systems in this paper. Multiple sensor-actuator-agents observe a dynamic process, sporadically exchange their measurements over a broadcast network according to an event-based protocol, and estimate the process state from the received data. The event-based approach was shown in [1] to mimic a centralized Luenberger observer up to guaranteed bounds, under the assumption of identical estimates on all agents. This assumption, however, is unrealistic (it is violated by a single packet drop or slight numerical inaccuracy) and removed herein. By means of a simulation example, it is shown that non-identical estimates can actually destabilize the overall system. To achieve stability, the event-based communication scheme is supplemented by periodic (but infrequent) exchange of the agentsâ?? estimates and reset to their joint average. When the local estimates are used for feedback control, the stability guarantee for the estimation problem extends to the event-based control system.
PDF Supplementary material DOI BibTeX