Title :
FORROST: Advances in on-orbit robotic technologies
Author :
Lampariello, R. ; Oumer, N.W. ; Artigas, J. ; Rackl, W. ; Panin, G. ; Purschke, R. ; Harder, J. ; Walter, U. ; Frickel, J. ; Masic, I. ; Ravandoor, K. ; Scharnagl, J. ; Schilling, K. ; Landzettel, K. ; Hirzinger, G.
Author_Institution :
Robot. & Mechatron. Center (DLR), Wessling, Germany
Abstract :
Orbital robotics is receiving growing attention worldwide for applications in servicing and repositioning of partially or fully defective satellites. In this paper, we present the scope and main results of a four-year research project, which aimed at developing necessary robotic technologies for such applications. The scope is two-fold, since we address both the human-operated robotic operational mode, referred to in robotics as force-feedback teleoperation, as well as the alternative autonomous mode, for the specific task of approaching and grasping a free-tumbling target satellite. We present methodological developments and experimental as well as numerical validations in the fields of tele-communications, computer vision, robot and spacecraft control and system identification. The results of this work constitute important advances in the fundamental building blocks necessary for the orbital applications of interest.
Keywords :
aerospace robotics; artificial satellites; force feedback; FORROST; alternative autonomous mode; computer vision; defective satellites; force feedback teleoperation; free-tumbling target satellite; human-operated robotic operational mode; on-orbit robotic technologies; orbital robotics; spacecraft control; system identification; telecommunications; Delay effects; Delays; Jitter; Real-time systems; Robot kinematics; Satellites;
Conference_Titel :
Aerospace Conference, 2015 IEEE
Conference_Location :
Big Sky, MT
Print_ISBN :
978-1-4799-5379-0
DOI :
10.1109/AERO.2015.7118944