EventsInnovation Aviation & Aerospace Industry - International Conference 2021
Published
with-doi10.3390/IAAI-2021-10596 (registering DOI)
This submission belongs to the session Aerospace Engineering. Aerospace Engineering of the event Innovation Aviation & Aerospace Industry - International Conference 2021
Published date
03 Jul, 2021
Academic Editor
author-avatarSoemsak Yooyen
Citation
potiwat ngamkajornwiwat, Supachai Vongbunyong, Narongsak Tirasuntarakul, Tara Chalermsongsak, Effects of Space Debris Collision on 5-Bar Linkage Robot Operation in Satellites: Simulation Approach, in Proceedings of Innovation Aviation & Aerospace Industry - International Conference 2021, Chiang Mai, 28 June–30 June 2021, MDPI: Basel, Switzerland, doi: 10.3390/IAAI-2021-10596
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Effects of Space Debris Collision on 5-Bar Linkage Robot Operation in Satellites: Simulation Approach

Narongsak Tirasuntarakul 3
Tara Chalermsongsak 4
1. Nanjing University of Aeronautics and Astronautics, China
2. Innovation and Advanced Manufacturing (I AM) Research Group , Institute of Field Robotics, King Mongkut's University of Technology Thonburi, Bangkok,Thailand
3. Institute of Field Robotics, King Mongkut's University of Technology Thonburi, Bangkok, Thailand
4. Mahidol University International College, Nakhon Pathom, Thailand;
Abstract

One of the most common damages of satellites is occurred by collisions of space debris. The collision of the debris is unavoidable during the space operation; therefore, the study of physical effects in relation to the collision must be conducted in order to understand the consequences. This article focuses on the analysis of the predictability of a robot arm A 5-bar planar robot with PID controller, that works inside the satellite. The analysis is performed by a simulation approach. The relationship between satellite damage and the debris’ size and speed, which vary according to the altitude, is analyzed. Consequently, the designs of small satellites’ orbits can be improved by using this study. As a result, the final condition of an operational satellite structure against a collision of valuable space debris can be predicted. Due to the motion control, the robot’s maximum position error is xx cm. This study leads to future work where the design rules for reducing the effect of payload variability will be developed.

Keywords
robotics
space debris
robustness
Manuscript
Reduction of Rocket Dispersion Using Model Predictive Lateral Pulse Jet Control
Developed a noiseless air inflator to increase the efficiency of testing robots in 2-dimensional zero gravity