Title :
Hexrotor UAV platform enabling dextrous interaction with structures-flight test
Author :
Guangying Jiang ; Voyles, Richard
Author_Institution :
Daniel Felix Ritchie Sch. of Eng. & Comput. Sci., Univ. of Denver, Denver, CO, USA
Abstract :
In this paper, we present the development of Dexterous Hexrotor, a hexrotor UAV platform with canted thrusters, enabling dexterous interaction with structures. Aerial mobile manipulation is an emerging niche in the field of mobile manipulation. Although there has been a fair amount of study of free-flying satellites with graspers and yielded impressive results, it is hampered a lack of appropriate testbeds for aerial mobile manipulation. Typical helicopters or quadrotors cannot instantaneously resist or apply an arbitrary force in the plane perpendicular to the rotor axis. They lack of force closure (a term from the dexterous manipulation community), which makes them inadequate for complex mobile manipulation tasks. The Collaborative Mechatronics Lab is addressing this instrumentation gap with the development of Dexterous Hexrotor to eventually host a low-cost, lightweight Stewart-Gough platform that can be combined as a macro/micro mobile manipulation system. Based on the concept of force closure, the new type of 6 DoFs hexrotor UAV provides the unique capability of being able to resist any applied wrench, or generalized force-torque. In this paper, we describe how Dexterous Hexrotor provides this important capability. We also describe the flight test which Dexterous Hexrotor is exhibiting holonomic behavior.
Keywords :
autonomous aerial vehicles; dexterous manipulators; force control; mobile robots; torque control; 6-DoF hexrotor UAV; aerial mobile manipulation; arbitrary force; canted thrusters; collaborative mechatronics lab; complex mobile manipulation tasks; dexterous hexrotor UAV platform; dexterous manipulation community; dextrous interaction; flight test; force closure; generalized force-torque; holonomic behavior; low-cost lightweight Stewart-Gough platform; macromobile manipulation system; micromobile manipulation system; rotor axis; structure-flight test; wrench; Force; Joints; Mobile communication; Robots; Rotors; Torque; Vectors;
Conference_Titel :
Safety, Security, and Rescue Robotics (SSRR), 2013 IEEE International Symposium on
Conference_Location :
Linkoping
Print_ISBN :
978-1-4799-0879-0
DOI :
10.1109/SSRR.2013.6719377