International Journal of Aerospace Engineering · 2011 · 19 citations · 22 references
Mmpc ApproachFlight Control SystemsTrajectory PlanningAerial RoboticsEngineeringAerospace EngineeringFormation FlightUnmanned SystemSystems EngineeringUav SubsystemFormation FlyingRoboticsSwarm RoboticsTrajectory OptimizationFlight Control
Motivated by the idea of multiplexed model predictive control (MMPC), this paper introduces a new framework for unmanned aerial vehicles (UAVs) formation flight and coordination. Formulated using MMPC approach, the whole centralized formation flight system is considered as a linear periodic system with control inputs of each UAV subsystem as its periodic inputs. Divided into decentralized subsystems, the whole formation flight system is guaranteed stable if proper terminal cost and terminal constraints are added to each decentralized MPC formulation of the UAV subsystem. The decentralized robust MPC formulation for each UAV subsystem with bounded input disturbances and model uncertainties is also presented. Furthermore, an obstacle avoidance control scheme for any shape and size of obstacles, including the nonapriorily known ones, is integrated under the unified MPC framework. The results from simulations demonstrate that the proposed framework can successfully achieve robust collision-free formation flights.
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Constrained model predictive control: Stability and optimality
D.Q. Mayne, James B. Rawlings, Christopher V. Rao et al. · Automatica · 2000 · 8.4K citations
Engineering, Model-based Control Technique, Process Control +4
Tight Formation Flight Control
Meir Pachter, J. D'Azzo, Andrew Proud · Journal of Guidance Control and Dynamics · 2001 · 261 citations