Peningkatan Efisiensi Energi pada Kendaraan Listrik dengan Elektronik Diferensial Berbasis ANN (Artificial Neural Network)

SOFYAN AHMADI, KHAIRUL ANAM, WIDJONARKO WIDJONARKO

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ABSTRAK

Seiring dengan perkembangan teknologi kendaraan listrik yang saat ini semakin canggih dan berkembang sangat cepat, upaya pengembangan kendaraan listrik terus dilakukan, salah satunya penggunaan motor BLDC dalam kendaraan listrik untuk meningkatkan efisiensi. Penelitian ini menggunakan kontrol ANN (Artificial Neural Network) pada mikrokontroler serta metode differential untuk pengontrolan kecepatan putar motor BLDC. Pengujian Percepatan dengan menempuh jarak 200 meter arus rata-rata sebesar 1,05 ampere. Daya rata-rata pada pengujian efisiensi sebesar 101 watt. Hasil efisiensi dari pengujian dengan panjang lintasan sejauh 3,3 km dengan waktu tempuh 10 menit didapatkan hasil efisiensi energi dari sistem kendaraan sebesar 179,34 km/kwh.

Kata kunci: Motor BLDC, Elektronik Diferensial, Neural network-Logic, Akselerasi, Efisiensi.

 

ABSTRACT

Along with the development of electric vehicle technology that is currently increasingly sophisticated and growing very fast. efforts to develop electric vehicles continue to be done, one of them the use of BLDC motor in electric vehicles to improve efficiency. In this study using ANN (Artificial Neural Network) control on the microcontroller as well as the differential method for controlling the rotational speed of the BLDC motor. Acceleration Testing with a distance of 200 meters average flow of 1.05 amperes. The average power on the 101 watt efficiency test. The efficiency of the test with the length of the track as far as 3.3 km with the travel time of 10 minutes obtained the efficiency of energy in the vehicle system of 179.34 km / kwh.

Keywords: BLDC Motor, Electronic Differential, Neural network-Logic, Acceleration,Efficiency.


Kata Kunci


Motor BLDC; Elektronik Diferensial; Neural network-Logic; Akselerasi; Efisiensi.

Teks Lengkap:

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Referensi


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DOI: https://doi.org/10.26760/elkomika.v8i3.642

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