Development of Wireless Transmission Towers from Local Waste Materials
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Abstract
This research presents a method for developing a wireless transceiver from local waste materials. Different materials have a parabolic curve shape. Materials can be found easily at home and low cost. The transceiver made from 5 types of materials is aluminium, zinc, stainless steel, steel, and foil. The material was selected for a diameter of parabolic curve shape of about 29 cm. The wireless transceiver is made from aluminum basins, zinc basins, stainless colander, iron pan, and foil-wrapped wireframe. The finding for the point of signal impact and combine the signal, test the signal strength of wireless LAN network by computer and test the increase of mobile phone signal were investigated.
The results showed that the best material to increase the signal strength of the wireless LAN network by computer at 140 meters of distance was an aluminum basin with an upload at 945.84 kbps and a download at 184.69 Mbps. The best material that increases mobile phone signal is an aluminum basin which have the highest signal increase of up to 16%, followed by a steel pan have the highest signal increase of up to 14%, and a stainless colander have the highest signal increase of up to 12% respectively. These results conform to the lower electrical resistance has better the wireless signal reflection.
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References
Agbaraji, E.C., Gloria, E.N., & Uzoma, O. (2014). Cellular Mobile Signal Propagation; Effects of EIRP and Antenna Gain, Journal of Emerging Trends in Computing and Information Sciences, 5(3), 172-177.
Balanis, C.A. (2005). Antenna theory and design (Ed. 3). John Willey & sons New Jersey.
Braun, C., Nilsson, M., & Murch R.D. (2009). Measurement of the Interference Rejection Capability of Smart Antennas on Mobile Telephones. Vehicular Technology Conference, IEEE 49 th, Vol.2, 1068 - 1072.
Chitranshi, R., Mehrotra, R.K., & Pancoli, P. (2014). Analysis of Cell Tower Radiation RFSafety and Practical Realization of Compliance Distance, International Journal of Scientific and Research Publications, 4(4), 1-6.
Matweb.com. (2019). Online Materials Information Resource. Retrieved October 12, 2019, from http://www.matweb.com/
Meteorological Satellite Center of JMA. (1978). Himawari Real-Time Image. Retrieved June 5, 2019, from http://ds.data.jma.go.jp/mscweb/data/himawari/sat_img.php?area=se1.
Mymobilebooster.com. (2019). Effects of Radiation from Mobile phone under weak signal Condition, Retrieved November 22, 2019, from http://mymobilebooster.com/ effects-of- radiation/.
Naji, D.K. (2013). Compact Broadband CPW-fed Taper-shaped Monopole Antenna with L-slots for C-band Applications. Int. J. Electromagn and Applications, 3, 136-143.
Naveenchandra, B., Lokesh, K.N., Usha, & Gangadhara Bhat, H. (2011). Signal Strength Measurements and Coverage Estimation of Mobile Communication Network Using IRS-IC Multispectral and CARTOSAT-1 Stereo Images, Dimensions and Directions of Geospatial Industry. Geospatial Word Forum. Hyderabad, India.
SatelliteDish.com. (1995). 2.4 Meter Prime Focus Az/El Mount Dish Antenna. Retrieved October 19, 2019, from http://www.satellitedish.com/page5.htm.
Telcoantennas.com. (2019). Poor Mobile Network Coverage Explained - Weak Signa, Retrieved November 24, 2019, from https://www.telcoantennas.com.au/site/poor-mobile-network-coverage-explained-weak-signal.
Utayarat, S. (2006). Research and Development of Processing Section Baseband Digital Signal of Communication System In Ground Stations for Small multipurpose Satellites. Kasetsart University, Bangkok. (In Thai).
Yuan, Q., Suguro, T., Chen, Q., Sawaya, K., Kudoh, E., & Adachi, F. (2006). Performance Study of W-CDMA Adaptive Array Antennas. Antennas and Propagation Society International Symposium, 2006 IEEE, 4573 - 4576.