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Ya Liu, Panfeng Huang, Fan Zhang, Yakun Zhao (2018)
Robust distributed consensus for deployment of Tethered Space Net RobotAerospace Science and Technology
Zhaokui Wang, Yun-Chao Xu, Chaoyang Jiang, Yulin Zhang (2019)
Self-organizing control for satellite clusters using artificial potential function in terms of relative orbital elementsAerospace Science and Technology
S. May, S. Gehly, B. Carter, S. Flegel (2018)
Space debris collision probability analysis for proposed global broadband constellationsActa Astronautica
Yakun Zhao, Panfeng Huang, Fan Zhang (2019)
Capture Dynamics and Net Closing Control for Tethered Space Net RobotJournal of Guidance, Control, and Dynamics
M. Shan, Jian Guo, E. Gill (2020)
An analysis of the flexibility modeling of a net for space debris removalAdvances in Space Research, 65
E. Botta, Corey Miles, I. Sharf (2020)
Simulation and tension control of a tether-actuated closing mechanism for net-based capture of space debrisActa Astronautica, 174
Weiliang Zhu, J. Si, Z. Pang, Z. Du (2020)
Rapid deployment and continuous shape maintenance of tethered-space net robot based on single-pulse actionAdvances in Space Research
V. Adushkin, O. Aksenov, S. Veniaminov, S. Kozlov, V. Tyurenkova (2020)
The small orbital debris population and its impact on space activities and ecological safetyActa Astronautica, 176
P. Saisutjarit, T. Inamori (2018)
Trajectory optimization of a multi-tethered space robot on large spinning net structuresAircraft Engineering and Aerospace Technology
D. Kessler, B. Cour-Palais (1978)
Collision frequency of artificial satellites: The creation of a debris beltJournal of Geophysical Research, 83
Tim Chen, Nai Dkuo, Cyj Chen (2020)
A composite control for UAV systems with time delaysAircraft Engineering and Aerospace Technology
(2019)
[WWW document]
K. Seweryn, J. Sasiadek (2019)
Satellite angular motion classification for active on-orbit debris removal using robotsAircraft Engineering and Aerospace Technology
Panfeng Huang, Fan Zhang, Lu Chen, Zhongjie Meng, Yizhai Zhang, Zhengxiong Liu, Yongxin Hu (2018)
A review of space tether in new applicationsNonlinear Dynamics, 94
(2021)
Launch schedule, internet coverage, and more
N. Johnson, P. Krisko, J. Liou, P. Anz-meador (2001)
NASA's new breakup model of evolve 4.0Advances in Space Research, 28
Le-ping Yang, Qingbin Zhang, Ming Zhen, Haitao Liu (2017)
Dynamics and Design of Space Nets for Orbital Capture
M. Garcia (2015)
Space debris and human spacecraft [WWW document]
Fan Zhang, Panfeng Huang (2017)
Releasing Dynamics and Stability Control of Maneuverable Tethered Space NetIEEE/ASME Transactions on Mechatronics, 22
S. Islam, P. Liu, A. Saddik, Reem Ashour, J. Dias, L. Seneviratne (2019)
Artificial and Virtual Impedance Interaction Force Reflection-Based Bilateral Shared Control for Miniature Unmanned Aerial VehicleIEEE Transactions on Industrial Electronics, 66
Panfeng Huang, Fan Zhang, Jun Ma, Meng Zhongjie, Liu Zhengxiong (2015)
Dynamics and configuration control of the Maneuvering-Net Space Robot SystemAdvances in Space Research, 55
J. Si, Z. Pang, Z. Du, Chun Cheng (2019)
Dynamics modeling and simulation of self-collision of tether-net for space debris removalAdvances in Space Research
Jinhuan Wang, D. Cheng (2008)
Extensions of LaSalle's Invariance Principle for Switched Nonlinear SystemsIFAC Proceedings Volumes, 41
G. Gilardi, I. Sharf (2002)
Literature survey of contact dynamics modellingMechanism and Machine Theory, 37
(2020)
Astromaterials research & exploration science [WWW document]
Fan Zhang, Panfeng Huang (2018)
Stability control of a flexible maneuverable tethered space net robotActa Astronautica, 145
Yakun Zhao, Fan Zhang, Panfeng Huang (2020)
Capture dynamics and control of tethered space net robot for space debris capturing in unideal capture caseJ. Frankl. Inst., 357
J. Forshaw, G. Aglietti, N. Navarathinam, H. Kadhem, T. Salmon, A. Pisseloup, Éric Joffre, T. Chabot, I. Retat, Robert Axthelm, S. Barraclough, A. Ratcliffe, C. Bernal, F. Chaumette, A. Pollini, W. Steyn (2016)
RemoveDEBRIS: An in-orbit active debris removal demonstration missionActa Astronautica, 127
C. Barnes, E. Botta (2020)
A quality index for net-based capture of space debrisActa Astronautica, 176
Xiangtian Zhao, Shijie Zhang (2021)
Adaptive saturated control for spacecraft rendezvous and docking under motion constraintsAerospace Science and Technology
Yakun Zhao, Fan Zhang, Panfeng Huang, Xiyao Liu (2020)
Impulsive Super-Twisting Sliding Mode Control for Space Debris Capturing via Tethered Space Net RobotIEEE Transactions on Industrial Electronics, 67
E. Esa (2021)
ESA’s Space Environment Report 2021 (No. GEN-DB-LOG-00288-OPS-SD)
Guang Zhai, Jingrui Zhang, Z. Yao (2013)
Circular Orbit Target Capture Using Space Tether-Net SystemMathematical Problems in Engineering, 2013
E. Botta, I. Sharf, A. Misra, M. Teichmann (2016)
On the simulation of tether-nets for space debris capture with Vortex DynamicsActa Astronautica, 123
G. Aglietti, B. Taylor, S. Fellowes, T. Salmon, I. Retat, A. Hall, T. Chabot, A. Pisseloup, C. Cox, A. Zarkesh, A. Mafficini, N. Vinkoff, K. Bashford, C. Bernal, F. Chaumette, A. Pollini, W. Steyn (2020)
The active space debris removal mission RemoveDebris. Part 2: In orbit operationsActa Astronautica
L. Olivieri, A. Francesconi (2020)
Large constellations assessment and optimization in LEO space debris environmentAdvances in Space Research, 65
Zheng Huang, Yun Lu, H. Wen, D. Jin (2018)
Ground-based experiment of capturing space debris based on artificial potential fieldActa Astronautica
J. Mason, Jan Stupl, W. Marshall, C. Levit (2011)
Orbital debris–debris collision avoidanceAdvances in Space Research, 48
This paper aims to study the encounter issues of the Tethered-Space Net Robot System (TSNRS) with non-target objects on orbit during the maneuver, including the collision issues with small space debris and the obstacle avoidance from large obstacles.Design/methodology/approachFor the collision of TSNRS with small debris, the available collision model of the tethered net and its limitation is discussed, and the collision detection method is improved. Then the dynamic response of TSNRS is studied and a closed-loop controller is designed. For the obstacle avoidance, the variable enveloping circle of the TSNRS has coupled with the artificial potential field (APF) method. In addition, the APF is improved with a local trajectory correction method to avoid the overbending segment of the trajectory.FindingsThe collision model coupled with the improved collision detection method solves the detection failure and speeds up calculation efficiency by 12 times. Collisions of TSNRS with small debris make the local thread stretch and deforms finally making the net a mess. The boundary of the disturbance is obtained by a series of collision tests, and the designed controller not only achieved the tracking control of the TSNRS but also suppressed the disturbance of the net.Practical implicationsThis paper fills the gap in the research on the collision of the tethered net with small debris and makes the collision model more general and efficient by improving the collision detection method. And the coupled obstacle avoidance method makes the process of obstacle avoidance safer and smoother.Originality/valueThe work in this paper provides a reference for the on-orbit application of TSNRS in the active space debris removal mission.
Aircraft Engineering and Aerospace Technology: An International Journal – Emerald Publishing
Published: Mar 31, 2022
Keywords: Active space debris removal; Artificial potential field; Nonlinear dynamics and control; Tethered-space net robot
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