DocumentCode
164092
Title
A system for the design and development of vision-based multi-robot quadrotor swarms
Author
Sanchez-Lopez, Jose Luis ; Pestana, Jesus ; de la Puente, P. ; Suarez-Fernandez, Ramon ; Campoy, Pascual
Author_Institution
Centre for Autom. & Robot., Comput. Vision Group, UPM, Madrid, Spain
fYear
2014
fDate
27-30 May 2014
Firstpage
640
Lastpage
648
Abstract
This paper presents a cost-effective framework for the prototyping of vision-based quadrotor multi-robot systems, which core characteristics are: modularity, compatibility with different platforms and being flight-proven. The framework is fully operative, which is shown in the paper through simulations and real flight tests of up to 5 drones, and was demonstrated with the participation in an international micro-aerial vehicles competition3 where it was awarded with the First Prize in the Indoors Autonomy Challenge. The motivation of this framework is to allow the developers to focus on their own research by decoupling the development of dependent modules, leading to a more cost-effective progress in the project. The basic instance of the framework that we propose, which is flight-proven with the cost-efficient and reliable platform Parrot AR Drone 2.0 and is open-source, includes several modules that can be reused and modified, such as: a basic sequential mission planner, a basic 2D trajectory planner, an odometry state estimator, localization and mapping modules which obtain absolute position measurements using visual markers, a trajectory controller and a visualization module.
Keywords
aerospace testing; aircraft control; autonomous aerial vehicles; helicopters; multi-robot systems; position measurement; robot vision; state estimation; trajectory control; 2D trajectory planner; Parrot AR Drone 2; compatibility characteristics; cost-effective framework; cost-effective progress; flight tests; international microaerial vehicles; localization modules; mapping modules; mission planner; modularity characteristics; odometry state estimator; position measurements; trajectory controller; vision-based multirobot quadrotor swarms design; vision-based multirobot quadrotor swarms development; vision-based quadrotor multirobot systems; visual markers; visualization module; Computers; Open source software; Robots; Trajectory; Unmanned aerial vehicles; Visualization; Wireless LAN;
fLanguage
English
Publisher
ieee
Conference_Titel
Unmanned Aircraft Systems (ICUAS), 2014 International Conference on
Conference_Location
Orlando, FL
Type
conf
DOI
10.1109/ICUAS.2014.6842308
Filename
6842308
Link To Document