PERHITUNGAN KONSTRUKSI DAN KALOR PADA ALAT PENGASAP IKAN BERBASIS MIKROKONTROLLER ARDUINO

Construction and Heat Calculations in a Fish Smoker Based on an Arduino Microcontroller

  • Simon Petrus Politeknik Negeri Samarinda
  • Merpatih Merpatih Politeknik Negeri Samarinda
  • Suwarto Suwarto Politeknik Negeri Samarinda
Abstract views: 19 , Pdf downloads: 22
Keywords: Fish smoker, Microcontroller, Fish Weight

Abstract

People generally make smoked fish traditionally, fish smoked above the kiln and smoke from burning biomass is left to mix with the air. This smoking technique has several disadvantages including exposure to direct smoke for a long time, this is very dangerous for health because it can cause eye irritation, respiratory problems, and throat. The next drawback is difficult temperature control, the temperature in traditional fumigation is relatively high. The smoking process requires proper temperature control so that smoked fish is not too cooked or even burnt and has good quality for consumption by the public. The purpose of this research is to design and make a more efficient fish smoker. The method used in using this tool is to design the tool, then test the tool, then analyze the tool and make sure the tool can work properly. The test results show that the fish smoker based on the Arduino Uno R3 microcontroller can work optimally with the smoking process taking 5-6 hours. Arduino Uno R3 microcontroller-based fish smoker can reduce the total weight of fish from 9 kg down to 6.7 kg. A good temperature in carrying out the process of smoking fish in order to obtain the results of smoking fish evenly is 40 ̊ C -50 ̊ C

References

Arizal, A., Putra, M. R., Tama, M. K., & Meilani, R. (2018, Maret 01). Pengaruh Waktu Dan Kecepatan Aliran Udara Terhadap Kadar Air Pada Proses Pengasapan Ikan Dengan Sistem Sikulasi Asap Bebas TAR. Politeknik Negeri Sriwijaya, Jurnal Kinetika, 15-16.

Atmadja, S. T. (2006, Oktober 4). Pengaruh Jarak Swirl Fan Terhadap Laju Penurunan Temperature Case, Hambatan Termal Dan Efektifitas Fin Pada Extrude Fin. 8, 41.

Hafiludin. (2015). Analisis Kandungan Gizi Pada Ikan Bandeng yang Berasal Dari Habitat Yang Berbeda. Jurnal Kelautan, 38-39.

Kaban, D. H., Timbowo, S., Pandey, E., Mewengkang, H., Palenewen, J., Mentang, F., & Dotulong, V. (2019). Analisa Kadar Air, pH, Dan Kapang Pada Ikan Cakalang (Katsuwonus pelamis, L) Asap Yang Dikemas Vakum Pada Penyimpanan Suhu Dingin. Jurnal Media Teknologi Hasil Perikanan, 76.

Mengenal Ikan Tongkol ( Euthynnus Affinis). (2019, November 14). Retrieved from Dunia Perairan: https://www.dunia-perairan.com/2019/11/mengenal-ikan tongkol-euthynnus-affinis.html

Mufarida, N. A. (2019). Perpindahan Panas 1. Jember: CV. Pustaka Abadi.

Mursadin, A., & Subagyo, R. (2016). In Bahan Ajar Perpindahan Panas I HMKK 453 (p. 2). Banjarbaru: Fakultas Teknik Universitas Lambung Mangkurat Banjarbaru.

Putri, T. M., Leksono, T., & Syahrul. (2020). Pengaruh Penambahan Jeruk Nipis (Citrus aurantifolia) Terhadap Mutu Ikan Nila (Oreochromis niloticus) Selama Penyimpanan Pada Suhu Ruang. Fakultas Perikanan Dan Kelautan Universitas Riau Pekanbaru, 1.

Rahmat, A. (2014, Dec 31). Jenis-Jenis Mikrokontroler Arduino. Retrieved from Kelas Robot: https://kelasrobot.com/jenis-jenis-microcontroller-arduino/

Rasydta, H. P., Sunarto, W., & Haryani, S. (2015). Penggunaan Asap Cair Tempurung Kelapa Dalam Pengawetan Ikan Bandeng. Indonesia Jurnal of Chemical Science Jurusan Kimia FMIPA Universitas Negeri Semarang, 12.

Sulistjiowati S, R., Djunaedi I, O. S., Nurhajati, J., Afrianto, E., & Udin, Z. (2011). Mekanisme Pengasapan Ikan. Bandung: UNPAD PRESS.

Yusuf, M., Aprilia, Y., Mardotillah, I., & Saputra, A. D. (2018). Rancang Bangun Alat Pengasap Ikan. AGROTEKNIKA, 28.

Published
2024-05-23
Section
Articles