DocumentCode
163959
Title
Simulation and platform tools to develop safe flock of UAVs: a CPS application-driven research
Author
Ciarletta, Laurent ; Guenard, Adrien ; Presse, Yannick ; Galtier, Virgine ; Ye-Qiong Song ; Ponsart, J.-C. ; Aberkane, S. ; Theilliol, Didier
Author_Institution
Madynes INRIA, Lorraine Univ., Nancy, France
fYear
2014
fDate
27-30 May 2014
Firstpage
95
Lastpage
102
Abstract
Autonomous formation flying (flocking) of UAVs requires coordination of efforts and solutions in multiple research fields (robotics, wireless sensor networks to name a few). The Airborne Embedded auTonomOUs Robust Network of Objects and Sensors (AETOURNOS) project is designed as a federative, fueling platform and global evaluation tool. It has spawned another collaborative project bridging the gap between Computer Science and Automation: 6PO (Cyber-Physical Systems and Cooperative Control of a Fleet of UAVs). We want to investigate new flocking strategies, mobility-aware communication protocols (and reciprocally: movements influenced by network QoS), and to ease the cooperation between experts, we need co-simulation solutions, and “universal” control interfaces. This article presents our first contribution to this grand scheme: a stand-alone simulation of an autonomous flocking strategy taking into account both the dynamics of the UAVs and their communications, which has allowed us to examine the relation between network unreliability and control computation. To better study the influence of the communication network, we present an architecture coupling a dedicated network simulator with the UAVs simulator, as well as with a real drone piloting interface. The lessons learned help us build a research and action plan for the years to come.
Keywords
autonomous aerial vehicles; mobile robots; multi-robot systems; protocols; quality of service; robot dynamics; AETOURNOS project; CPS application-driven research; UAV dynamics; UAV flocks; airborne embedded autonomous robust network of objects and sensors; autonomous flocking strategy; autonomous formation flying; control interfaces; cyber-physical systems; drone piloting interface; flocking strategies; mobility-aware communication protocols; network simulator; unmanned aerial vehicles; Collision avoidance; Computational modeling; Mathematical model; Robot kinematics; Robot sensing systems;
fLanguage
English
Publisher
ieee
Conference_Titel
Unmanned Aircraft Systems (ICUAS), 2014 International Conference on
Conference_Location
Orlando, FL
Type
conf
DOI
10.1109/ICUAS.2014.6842244
Filename
6842244
Link To Document