Title :
Haptic interface in UAV tele-operation using force-stiffness feedback
Author :
Lam, T.M. ; Mulder, M. ; van Paassen, M.M.
Abstract :
This study investigates the use of force-stiffness feedback, i.e., a combination of force offset and extra spring load, in UAV tele-operation with transmission time delay. The goal was to further increase the level of safety of tele-operation with a reduction in operator workload with respect to force feedback, i.e., using force offset alone. A theoretical analysis is given of using force-stiffness feedback to improve collision avoidance. Wave variables are included to reduce time delay effects. An experiment was conducted to investigate the effects of force-stiffness feedback on safety of operation, operator performance, control activity, and workload. Results indicate that force-stiffness feedback improves the haptic interface with respect to force feedback alone. Safety of tele-operation increases without increasing operator workload with respect to force feedback.
Keywords :
aerospace robotics; haptic interfaces; mobile robots; remotely operated vehicles; telerobotics; UAV teleoperation; force-stiffness feedback; haptic interface; transmission time delay; uninhabited aerial vehicle; Collision avoidance; Cybernetics; Delay effects; Force control; Force feedback; Haptic interfaces; Safety; Satellite ground stations; Springs; Unmanned aerial vehicles; Tele-operation; haptics; unmanned aerial vehicles;
Conference_Titel :
Systems, Man and Cybernetics, 2009. SMC 2009. IEEE International Conference on
Conference_Location :
San Antonio, TX
Print_ISBN :
978-1-4244-2793-2
DOI :
10.1109/ICSMC.2009.5346913