DocumentCode
2764914
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
fYear
2015
fDate
7-14 March 2015
Firstpage
1
Lastpage
20
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;
fLanguage
English
Publisher
ieee
Conference_Titel
Aerospace Conference, 2015 IEEE
Conference_Location
Big Sky, MT
Print_ISBN
978-1-4799-5379-0
Type
conf
DOI
10.1109/AERO.2015.7118944
Filename
7118944
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