Title :
Path planning and Ground Control Station simulator for UAV
Author :
Ajami, Alain ; Balmat, J. ; Gauthier, Jean-Paul ; Maillot, Thibault
Author_Institution :
LSIS, Univ. de Toulon, La Garde, France
Abstract :
In this paper we present a Universal and Interoperable Ground Control Station (UIGCS) simulator for fixed and rotary wing Unmanned Aerial Vehicles (UAVs), and all types of payloads. One of the major constraints is to operate and manage multiple legacy and future UAVs, taking into account the compliance with NATO Combined/Joint Services Operational Environment (STANAG 4586). Another purpose of the station is to assign the UAV a certain degree of autonomy, via autonomous planification/replanification strategies. The paper is organized as follows. In Section 2, we describe the non-linear models of the fixed and rotary wing UAVs that we use in the simulator. In Section 3, we describe the simulator architecture, which is based upon interacting modules programmed independently. This simulator is linked with an open source flight simulator, to simulate the video flow and the moving target in 3D. To conclude this part, we tackle briefly the problem of the Matlab/Simulink software connection (used to model the UAV´s dynamic) with the simulation of the virtual environment. Section 5 deals with the control module of a flight path of the UAV. The control system is divided into four distinct hierarchical layers: flight path, navigation controller, autopilot and flight control surfaces controller. In the Section 6, we focus on the trajectory planification/replanification question for fixed wing UAV. Indeed, one of the goals of this work is to increase the autonomy of the UAV. We propose two types of algorithms, based upon 1) the methods of the tangent and 2) an original Lyapunov-type method. These algorithms allow either to join a fixed pattern or to track a moving target. Finally, Section 7 presents simulation results obtained on our simulator, concerning a rather complicated scenario of mission.
Keywords :
Lyapunov methods; aerospace components; autonomous aerial vehicles; digital simulation; ground support systems; image motion analysis; military aircraft; nonlinear control systems; path planning; public domain software; target tracking; trajectory control; video signal processing; 3D moving target simulation; Combined Services Operational Environment; Joint Services Operational Environment; Lyapunov-type method; Matlab/Simulink software connection; NATO; STANAG 4586; UIGCS simulator; autonomous planification strategy; autonomous replanification strategy; autopilot; fixed wing UAV; flight control surfaces; flight path control module; moving target tracking; navigation controller; nonlinear models; open source flight simulator; path planning; rotary wing UAV; simulator architecture; tangent methods; trajectory planification; trajectory replanification; universal and interoperable ground control station simulator; video flow; virtual environment; Aerodynamics; Aircraft; Cameras; Equations; Mathematical model; Rotors; Vectors;
Conference_Titel :
Aerospace Conference, 2013 IEEE
Conference_Location :
Big Sky, MT
Print_ISBN :
978-1-4673-1812-9
DOI :
10.1109/AERO.2013.6496845