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Abstract
Fish farming using a closed system is very susceptible to death in a chain because it does not change the water so that the water quality decreases relatively quickly. To solve this problem, they generally use a circulation pump machine and an aerator machine to add oxygen levels, so that water quality remains stable. E-Ox Level is a research technology that has been tested and is able to work continuously. Its function is to monitor water quality and control the aerator machine's on and off activity based on timing and dissolved oxygen levels. The power source used by E-Ox Level is solar energy. So that this technology can save energy and is environmentally friendly, because it does not use PLN electricity. This research is an advanced stage process from the previous E-Ox Level technology design engineering. The purpose of this research is to observe the ability of E-Ox Level technology to display measurement data on the LCD screen and store water quality data continuously on the SD Card, as well as observe the effect of the activity of the aerator control system to produce a more optimum fish harvest. The method used in this research is the process of observing the performance of the E-Ox Level and comparing the results of the growth pattern in a pond with an E-Ox Level, a pond with a Standard Aerator, and a control pond. The working principle is to carry out design activities, then install the E-Ox Level in the Budidkdamber pond. The types of data observed were the suitability of the data displayed on the LCD screen with those stored in memory, the amount of data and the stability of the data stored on the SD Card, as well as data comparisons from catfish growth patterns in budikdamber ponds installed with E-Ox Level, Aerator Standard, and control pool (without aerator). From the results of observations, the data shown on the LCD screen with the complete stored on the SD Card from January 25 to April 8, 2021 is appropriate. The number of deaths and growth patterns of fish using E-Ox Level and AC Aerator is better and faster than control ponds. The advantage of the E-Ox Level over standard aerators is that it uses solar energy as a power source..
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Copyright (c) 2022 Aquacultura Indonesiana
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References
- Aghnia, W.N., A. Yustiati, and Rosidah. 2016. Aplikasi teknologi nano dalam sistem aerasi pada pendederan ikan mas (cyprinus carpio). Jurnal Perikanan Kelautan, 7(2): 29-34.
- Hasan, Z, Masjamsir and Iskandar. 2015. Pemanfaatan teknologi aerasi berbasis energi surya untuk memperbaiki kualitas air dan meningkatkan pertumbuhan ikan nila di KJA Waduk Cirata. Jurnal Akuatika, 6(1): 68-7.
- Kusumah, B.R., A. Kostajaya, D. Supriadi, E. Henda and R. Siskandar. 2020. Engineering of automatically controlled energy aeration systems for fisheries cultivation pools. Aquacultura Indonesiana, 21(2): 74-81.
- Komarawidjaja, W. 2006. Pengaruh perbedaan dosis oksigen terlarut (do) pada degradasi amonium kolam kajian budidaya udang. J.Hidrosfir, 1(1): 32 -37.
- Minggawati and I. Saptono. 2012. Parameter Kualitas Air untuk Budidaya Ikan Patin (Pangasius pangasius) di Karamba Sungai Kahayan, Kota Palangka Raya. Jurnal Ilmu Hewani Tropika, 1(1): 27-30.
- Sanjaya, I.P.G.M., C.G.I. Partha and D.C. Khrisne. 2017. Rancang bangun sistem data logger berbasis visual pada solar cell. Teknologi Elektro, 16(3): 114-121.
- Shiyang, Z., L. Gu, T. Ling, and L. Xiaoli. 2013. Impact of different aeration approaches on dissolved oxygen for intensive culture ponds. Transaction of the ChineseSociety of Agricultural Engineering, 29: 169.
- Siskandar, R. and B.R. Kusumah. 2019. Control device engineering for aquaponic monitoring system. Aquacultura Indonesiana 20(2): 72-73.
- Wahjono, H.D. 2014. Rancang bangun program kontrol data logger untuk pemantauan kualitas air menggunakan aplikasi Foss GNU C++. JAI , 7(2): 193-204
References
Aghnia, W.N., A. Yustiati, and Rosidah. 2016. Aplikasi teknologi nano dalam sistem aerasi pada pendederan ikan mas (cyprinus carpio). Jurnal Perikanan Kelautan, 7(2): 29-34.
Hasan, Z, Masjamsir and Iskandar. 2015. Pemanfaatan teknologi aerasi berbasis energi surya untuk memperbaiki kualitas air dan meningkatkan pertumbuhan ikan nila di KJA Waduk Cirata. Jurnal Akuatika, 6(1): 68-7.
Kusumah, B.R., A. Kostajaya, D. Supriadi, E. Henda and R. Siskandar. 2020. Engineering of automatically controlled energy aeration systems for fisheries cultivation pools. Aquacultura Indonesiana, 21(2): 74-81.
Komarawidjaja, W. 2006. Pengaruh perbedaan dosis oksigen terlarut (do) pada degradasi amonium kolam kajian budidaya udang. J.Hidrosfir, 1(1): 32 -37.
Minggawati and I. Saptono. 2012. Parameter Kualitas Air untuk Budidaya Ikan Patin (Pangasius pangasius) di Karamba Sungai Kahayan, Kota Palangka Raya. Jurnal Ilmu Hewani Tropika, 1(1): 27-30.
Sanjaya, I.P.G.M., C.G.I. Partha and D.C. Khrisne. 2017. Rancang bangun sistem data logger berbasis visual pada solar cell. Teknologi Elektro, 16(3): 114-121.
Shiyang, Z., L. Gu, T. Ling, and L. Xiaoli. 2013. Impact of different aeration approaches on dissolved oxygen for intensive culture ponds. Transaction of the ChineseSociety of Agricultural Engineering, 29: 169.
Siskandar, R. and B.R. Kusumah. 2019. Control device engineering for aquaponic monitoring system. Aquacultura Indonesiana 20(2): 72-73.
Wahjono, H.D. 2014. Rancang bangun program kontrol data logger untuk pemantauan kualitas air menggunakan aplikasi Foss GNU C++. JAI , 7(2): 193-204