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Implementation and validation of an event-based real-time nonlinear model predictive control framework with ROS interface for single and multi-robot systems

Jan Dentler, Somasundar Kannan, Miguel Olivares-Mendez, Holger Voos

Year
2017
Citations
4

Abstract

This paper presents the implementation and experimental validation of a central control framework. The presented framework addresses the need for a controller, which provides high performance combined with a low-computational load while being on-line adaptable to changes in the control scenario. Examples for such scenarios are cooperative control, task-based control and fault-tolerant control, where the system's topology, dynamics, objectives and constraints are changing. The framework combines a fast Nonlinear Model Predictive Control (NMPC), a communication interface with the Robot Operating System (ROS) [1] as well as a modularization that allows an event-based change of the NMPC scenario. To experimentally validate performance and event-based adaptability of the framework, this paper is using a cooperative control scenario of Unmanned Aerial Vehicles (UAVs). The source code of the proposed framework is available under [2].

Keywords

Model predictive controlInterface (matter)Computer scienceAdaptabilityModular programmingEvent (particle physics)Control engineeringRobotNonlinear systemFault tolerance

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