Design and Implementation of Substitution Power Supply at Base Transceiver Station (BTS) Using Hybrid Distributed Generator Wind Turbine and Solar Cell Powers

Naziruddin Naziruddin, Faizar Abdurahman, Radhiah Radhiah, Maimun Maimun, Said Abu Bakar

Abstract


The availability of electric energy source in nature such as wind and solar power have not been explored and used significantly as electric power sources for human need of energy. Base transceiver station (BTS) sets a condition as uninterrupted power supply (UPS), which is currently supplied by the grid (PLN). However, that supplies is guaranteed inconsistent for consumer. Therefore, due to fulfil the need of BTS, the energy can be supplied by a substitution of distributed generator (DG) such as wind turbine and solar cell. This research conducts by designing a hybrid of wind turbine and solar cell energy modules. These modules are able to generate 50 Ampere-hour of electric energy. The result of this research shows that it needs 10.41 and 8 hours to fully charge 50-Ah battery for wind turbine and solar cell modules, respectively. Apparently, it is indicate that the designing of wind turbine and solar cell modules could result 100-Ah energy for 10 hours.

Keywords


Electric energy; wind power; solar cell; BTS

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References


Analysis of Solar Cell Power Plant Opportunity in Indonesia, http.www.geocities.com/markal_bppt/publish/pltkcl/plrahard.pdf (accessed at 15 January 2009

Vereecken W, Van Heddeghem W, Deruyck M, Puype B, Lanoo B, Joseph W, Cole D, Martens L, Demeester P, 2011, Power Consumption in telecommunication network: Overview and reduction strategies, IEEE Communication Magazine, 49(6), p.62- 69.

Nema P, Nema RK, Rangnekar S, 2010, Minimization of greenhouse gases emission by using hybrid energy system for telephony base station site application, Renewable and Sustainable Energy Reviews, 14(6),p.1635-1639.

Stev NR, 2008, Energy Logic: A road map to reducing energy consumption in telecommunication networks, In Proceedings of IEEE 30th International Telecommunication Energy Conference, San Diego, CA.

Zhou W, Lou C, Lia Z, Lu L, Yang H, 2010, Current status of research on optimum sizing of stand-alone hybrid solar wind power generation system, Applied Energy, 87(2), p.380-389.

Naikodi, 2011, Solar-wind hybrid power for rural Indian cell sites, in proceeding of 2010 IEEE International Energy Conference and Exhibition (Energycone), Manama, p.69-72.

Hashimoto S, Yachi T, Tani T, 2004, A new stand-alone hybrid power system with wind generator and photovoltaic modules for a radio base station, in Proceeding of 26th Annual Telecommunications Energy Conference, p.254-259.

Ekren O and Ekren BY, 2008, Size optimation of PV/wind hybrid energy conversion system with battery storage using respon surface methodology, Applied Energy, 85(11), p.1086-1101.

Ekren O and Ekren BY, 2010, Size optimation of PV/wind hybrid energy conversion system with battery storage using simulated annealing, Applied Energy, 87(2): 592-598.

Yang H, Wei Z, Chengzhi L, 2009, Optimal design and techno- economic analysis of hybrid solar wind power generation system, Solar Energy, 86(2), p.163-169.

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Nema P, Nemab RK, Rangnekara S, 2009, A current and future state of art development of hybrid energy system using wind and PV- solar: A review, Renewable an Sustainable Energy Review, 13(8), p.2096-2103


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