ANALISA PEMILIHAN MOSFET PADA FULL H-BRIDGE DRIVER UNTUK BEBAN THERMOELECTRIC COOLER (TEC)
Abstract
Abstrak
Mosfet merupakan bagian perangkat penting dalam desain rangkaian full h-bridge untuk beban arus dan tegangan besar, sehingga pemilihan tipe mosfet berdasarkan parameter yang ada pada mosfet itu sangat harus diperhatikan untuk mendapatkan desain rangkain dengan performa maksimal. Sebuah mosfet memiliki rangkain pengganti didalam yang bisa mempengaruhi performa dari mosfet itu sendiri. Dalam penelitian ini bertujuan untuk membandingkan dua N-Channel mosfet untuk dipilih sebagai driver dari beban thermoelectric cooler sebesar 380W didapatkan bahwa tipe mosfet IPP052N08N5 memiliki performa yang lebih baik dibanding tipe IRFB52N15 secara temperature case tidak panas jika bekerja tanpa heatsink yaitu sebesar 36OC dibanding suhu IRFB52N15 bisa mencapai 60OC, suhu ini merupakan suhu terpanas dalam pengetesan yaitu ketika PWM duty cycle 99%, saat PWM duty cycle diturunkan maka suhu mosfet juga akan turun.
Kata Kunci: mosfet N-channel, full h-bridge, temperature case, PWM duty, thermoelectric cooler.
Abstract
The mosfet is an important device in the design of a full H-bridge circuit for large current and voltage loads, so selecting the mosfet type based on the parameters of the mosfet must be considered to obtain a circuit design with maximum performance. A mosfet has a replacement circuit inside which can affect the performance of the mosfet itself. In this study, the aim was to compare two N-Channel MOSFETs to be selected as drivers for a thermoelectric cooler load of 380W. It was found that the IPP052N08N5 MOSFET type had better performance than the IRFB52N15 type in that the case temperature was not hot when working without a heatsink, namely 36OC compared to the IRFB52N15 temperature. reaching 60OC, this temperature is the hottest temperature in the test, namely when the PWM duty cycle is 99%, when the PWM duty cycle is reduced, the MOSFET temperature will also decrease.
Keywords: mosfet N-channel, full h-bridge, temperature case, PWM duty, thermoelectric cooler.
Keywords
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DOI: http://dx.doi.org/10.32497/orbith.v20i1.5427
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