Rancang Bangun Prototipe Pengoptimal Charging Baterai pada Mobil Listrik dari Pembangkit Tenaga Surya dengan Menggunakan Sistem Boost Converter

Gurum Ahmad  Pauzi; Diana  Rahma; Sri Wahyu  Suciyati; Arif  Surtono

doi:10.23960/jemit.v1i2.19

Authors

Gurum Ahmad Pauzi Departement of Physics, University of Lampung, Indonesia, 35141
Diana Rahma Departement of Physics, University of Lampung, Indonesia, 35141
Sri Wahyu Suciyati Departement of Physics, University of Lampung, Indonesia, 35141
Arif Surtono Departement of Physics, University of Lampung, Indonesia, 35141

DOI:

https://doi.org/10.23960/jemit.v1i2.19

Keywords:

Boost Converter, Diameter of wire, Electric Car

Abstract

In this research, the lithium-ion 48 Volt battery charging system's design was carried out on the prototype electric car using the boost converter tool. Boost converter consists of several circuit systems, namely oscillator circuit, trigger circuit, switching circuit, inductor, and DC output. IC TL 494 as pulse and frequency wave generator, used to regulate the switching process on the MOSFET circuit in the boost converter. This research was conducted by presenting variations in the inductor wire's diameter to determine the result of the current output used for the filling process by varying the diameter by 0.8 mm, 4 mm, and 8 mm. The number of wire twists used remains 5:27 and produces an output voltage boost converter of 54 Volts. The results showed the inductor wire's diameter affected the output of the boost converter and the length of battery charging time on the electric car. The length of time of battery draining at the wire's diameter is 0.8 mm, which is for 680 minutes, at the wire 4 mm diameter for 290 minutes, and at the diameter of the wire, 8 mm is for 400 minutes. The boost converter has the advantage of being more efficient in terms of dimensions, resulting in 3 times the voltage and power increase compared to the input voltage. The maximum panel input power of 14.5 Watts when added boost converter maximum power increased by 47.84 Watts.

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References

Anhar, A.S., I.D, Sara dan R.H, Siregar. 2017. Desain Prototype Sel Surya Terkonsentrasi Menggunakan Lensa Fresnel. Jurnal Online Teknik Elektro. 2(3): 1-7.

Aryza, Solly, Hermansyah., P.U.S Andysyah, Suherman dan L. Zulkarnain. 2017. Implementasi Energi Surya Sebagai Sumber Suplai Alat Pengering Pupuk Petani Portable. IT Journal Research and Development. 2(1): 12-18.

Cheng, C. L., Chan, C.Y., dan Chen, C.L., (2007) An empirical approach to estimating monthly radiation on south-facing tilted planes for building application, Amsterdam, Journal of Energi, Volume 31, Issue 14, pp. 2940-2957.

Duffie, A William dan William, A Beckman. 2008. Solar Engenering of Thermal Processes. John Wiley and sons. Newyork.

Fanani, Akhmad Zaky. M. Ashari dan T. Yuwono. 2014. Desain dan Simulasi Konverter Boost Multilevel sebagai Catu Daya Kendaraan Listrik. Jurnal Teknik POMITS. 3(1): B-1:B-6.

Jamlay, Marselin dan F.W. Muhammad. 2014. Dual Feedback Control DC-DC Boost Converter Menggunakan PI Controller. Jurnal Inovtek. 4(2): 91-97.

Muharom, Syahri. Odinanto, Tjahja dan P. Wiryo. 2017. Analisa Induktor Pada Rangkaian Boost Converter. Seminar Nasional Sains dan Teknologi Terapan. ISBN 978-602-98569-1-0. B-305-B-309.

Purnomo, S.J., B.H. Pratama., L.N. Hakim., Nurofik dan S. Pambudi. 2017. Uji Eksperemintal Kinerja Mobil Listrik. Prosiding SNATIF ke-4. Universitas Tidar. Magelang.

R. Eberhart, J. Kennedy, A new optimizer using particle swarm theory, MHS’95, in: Proceedings of the Sixth International Symposium on Micro Machine and Human Science, Ieee, 1995, pp. 39–43.

Rochman, Sagita dan Sembodo, Budi Prijo. 2014. Rancang Bangun Alat Kontrol Pengisian Aki Untuk Mobil Listrik Menggunakan Energi Sel Surya dengan Metode Sequensial. Jurnal Teknik WAKTU. 12(2): 61-66.

S. Balci, A CFD simulation of the liquid-cooled pipe conductors for the high power and high frequency power electronic circuits, Measurement 147 (2019) 106885.

S. Balci, A. Kayabasi, B. Yildiz, ANN-based estimation of the voltage ripple according to the load variation of battery chargers, Int. J. Electron. (2019) 1–11.

Takle, E. S., and Shaw, R. H. (2007) Complimentary Nature of Wind and Solar Energy at a Continental Mid-Latitude Station. New York. International Journal of Energy Research, Volume 3, Issues 2, pp. 103-112.

Yuliananda, Subekti. Sarya, Gede dan RA Retno Hastijanti. 2015. Pengaruh Perubahan Intensitas Matahari Terhadap Daya Keluaran Panel Surya. Jurnal Pengabdian LPPM Untang Surabaya. 01(2): 193-202.

Zainuri, F., A. Apriana dan D.D., Haryadi. 2015. Optimalisasi Rancang Bangun Mobil Listrik Sebuah Studi Kendaraan Hemat Energi Sebagai Bagian Solusi Alternatif Krisis Energi Dunia. Jurnal Politeknologi. 14(3): 1-8.