Automatic Detection System Satellite Orbit Position with a Method of Control Azimuth and Elevation Angles Parabolic Antenna
Abstract
The automatic system satellite signal strength tracking model through the positioning of the receiving antenna is one way to reduce the problem of attenuation and signal strength instability which is quite influential in tracking the satellite orbit position. The method of applying the antenna movement technique by adjusting the azimuth and elevation angles is possible to detect the position of the satellite orbit trajectory accurately. Therefore, the expected goal is to know the existence of the satellite's orbital trajectory and ensure that the signal strength it transmits will always be stable in all conditions. The empirical quantitative method is used to support the achievement of these objectives where the technique is carried out through field observations and device design involving calculations and applied mathematical equations based on information on satellite position data as a tracking object as well as a source of signal strength. Based on the test results, it shows that all the positions of the tracked satellite orbital trajectories produce a minimum and maximum azimuth-elevation angle of 0.52% - 4.02% and 0.25% - 3.99% when the system detects NSS6. Furthermore, when the system detects Palapa D, the minimum values for the percentage of maximum deviation error are 0.6% and 4.67% with a tolerance of the alignment angle to the satellite of < 20. Overall, the designed system is able to track the position of the satellite's orbit path based on the level of signal strength stability on the parabolic receiver antenna which is designed with a small percentage of angle error.
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J. Seitz, “Wi-Fi Azimuth and Position Tracking Using Directional Received Signal Strength Measurements”, IEEE Workshop on Sensor Data Fusion: Trends, Solutions, Applications (SDF), 2012, p. 72-77
Sebastijan, “Design and implementation of location service based on signal strength difference”, IEEE 13th International Conference on Intelligent Environments, 2017, p. 1-5
J. Seitz, and T. Vaupel, “Wi-Fi Azimuth and Position Tracking:Signal Propagation, Modeling and Evaluation”, IEEE 16th International Conference on Information Fusion, 2013, p. 1479-1486
M. C. Megasakti, “Design Autotracking with Microcontroller, GPS, Sat Finder and Digital Compass for Azimuth’s Antennas Sinchronization to Satelit Cakrawalata-2 Satelitte”, Departement of Electrical Engineering Universitas Indonesia, 2010
M. M. Awaludin, “Design and Implementation Automatic Finder for Antennas Directivity based GPS Modul microcontroller ATMEGA 8535”, Departement of Telecommunication Engineering Universitas Telkom, Bandung, 2012
S. Aydin and H. Ibrahim, “Antenna Azimuth Position Control with PID, Fuzzy Logic and Sliding Mode Controllers”, IEEE International Symposium on Innovation Intellegent System and Applications (INISTA), 2016, p. 10-15
F. Kocadag and A. Demirkol, “Real Tracking of TV Satellites on Moving Vehicles Using Kalman Filter”, IEEE 2nd International Conference on Signal Processing and Integrated Network (SPIN), 2015, p. 1-5
T. Ren and M.G. Potevello, “A Stand Alone Approach for High Sensivity GNSS Receivers in Signal Challenged Evironment”, IEEE Transactions on Aerospace and Electronic System, 2017, p. 1-12
K.M. Gayathri, N. Thangadurai and M.P. Vasudha, “Performance Analysis of IRNSS receiver Signal Strength and Accuracy on a Moving Vehicles”, IEEE International Conference on Advanced Communication Control and Computing Technologies (ICACCCT), 2016, p. 616-623
Y. Sangesfidi, S. Ziaeinnejad and A.M. Sani, “A New Motor Drive to Control a Two Phase Induction Motor and a DC Motor’, IEEE, 2015, p.818-822
K.S.R. Kumar, Jaideep, Rohit and Vikas, “Microprosessor Based Closed Loop Speed Control of DC Motor Using PWM”, International Conference on Control, Instrumentation, Communication and Computical Technologies (ICCICCT), 2015, p. 255-257
M.D. Marcu, R.I. Slusariuc, F.G. Popescu, and L.B. Samolia, “Universal DC Motor Protection System Based on Microcontroller Embedded Algoritm”, International Symposium on Fundamental of Electrical Engineering University Plitechnica of Bucharest, Romania, November 2018, p. 1-3
A. Albasir, K. Naik and T. Abdunabi, “Smart Mobile Web Browsing”, IEEE, 2016, p. 671-678
J. Lim, S. Lee, G. Tewolde and J. Kwon, “Indoor Localization and Navigation for a Mobile Robot Equippped with Rotating Ultrasonic Sensors using a Smartphone as the Robot’s Brain”, IEEE, 2015, p. 621-625
M. Roy, and S. Oh, “Smartphone Based Automated Microparticle Analysis System”, IEEE, 2015, p. 1-3
P. Pratumsuan and K. Chanaisawan, “Applying the Smartphone on Position Tracking Control of Servo Pneumatic Systems”, IEEE, 2016, p. 1-5
T. Nishimura, Y. Yoshimura, et.al, “Azimuth Characteristic of Radio Wave Propagation in a Mulberry Farm in 920-MHz Band,” IEEE, 2017, p. 182-184
J. Li and D, Jiang, “Joint Elevation and Azimuth Angles Estimation for L-Shaped Array”, IEEE Antennas and Wireless Propagation Letters, 2016, p. 1-4
H. Chen, C. Hou, et.al, “Improved Azimuth/Elevation Angle Estimation Algoritm for Three-Parallel Uniform Linear Arrays, IEEE Antennas and Wireless Propagation Letters, Vol. 14, 2015, p. 329-332
F. Keskin, and T. Filik, “3D-Shaped Array Design for Full Isotropic Azimuth and Elevation Angle Estimation”, IEEE, 2019, p. 1-4
O.D. Ayansola and A. Henry E.C.A, “Mathematical Modelling of Antenna Look Angles of Geostationary Communications Satellite Using Two Models of Control Stations,” IEEE 3rd International Conference on Advanced Computer Theory and Engineering (ICACTE), 2010, p. 236-240
H. Cho, S.C. Chae, at.al, “Azimuth Pattern Reconfigurable Magnetic Dipole Antenna with Wide Angle Coverage,” Proceeding of the 49th European Microwave Conference, 2019, p. 1052-1055
K. Kitao, T. Imai, K. Saito and Y. Okumura,” Elevation Directional Channel Properties at BS to Evaluate 3D Beamforming”, IEEE, 2013, p. 640-644
K. Yu, C. Rizos and A.G. Dempster, “Forest Change Detection Based On GNSS Signal Strength Measurements,” IEEE, 2013, p. 1003-1006
J. Norris, B. Taylor and W. Tyler, “Methods of Detection of Bandlimited Signals on UHF MILSATCOM Downlink”, IEEE Military Communications Conference, 2013, p. 1819-1824
Z. Shen, J. Li, and Q. Wu, “Data-Driven Interference Localization Using a Single Satellite Based on Received Signal Strength”, IEEE Transaction on Vehicular Technology, 2020, p. 1-15
J. Miao, P. Wang, et.al, “AMulti-attribute Decision Handover Scheme for LEO Mobile Satellite Networks”, IEEE 5th International Conference on Computer and Communications, 2019, p. 938-942
Raghu, R. Kumar M, and Shubhanka, “Tracking and Analysis of IRNSS and GPS Satellites by Using Satellite Tool Kit”, IEEE International Conference on Recent Trnds in Electronics, Informatic &Communication Technology, May 18 th, 2018, p. 126-130
M. Nugroho and N.M.N. Khamsah, “Study of Impact of Outdated Two-Line Element Sets in Tracking of LAPAN-A2 and LAPAN-A3 Satellites”, IEEE International Conference on Aerospace Elecronics and Remote Sensing Technology, 2018, p. 1-6
Raghu, Manjunatha, and Kiran, “ Determination and Preliminary Analysis of Position Accuracy on IRNSS Satellites”, IEEE International Conference on Communication and Signal Proceeding, April 6th-8th, 2016, p. 765-769
M. Aorpimai, V. Malayvej and P. Navakitkanok,”High Fidelity Orbit Propagator for Precise Antenna Pointing in LEO Satellite Operation”, IEEE, 2014, p. 223-226
DOI: https://doi.org/10.18196/jrc.26131
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