Pengaruh Jumlah Sirip Heatsink Terhadap Distribusi Temperatur Pada Alat Penghasil Air Dari Udara Atmosfir
Ben V. Tarigan, Muhamad Jafri, dan Sadrak Ndollu
-
Ben Tarigan(1)
Program Studi Teknik Mesin, Fakultas Sains dan Teknik Universitas Nusa Cendana
-
Muhamad Jafrim(2*)
Program Studi Teknik Mesin, Fakultas Sains dan Teknik Universitas Nusa Cendana
-
Sadrak Ndollu(3)
Program Studi Teknik Mesin, Fakultas Sains dan Teknik Universitas Nusa Cendana
(*) Corresponding Author
Abstract
Water is a natural resource that is absolutely necessary for human life and in an environmental systems, water is an element of the environment. Water demand is the amount of water needed for household, industrial, urban flushing and others. One of the water-producing systems that is being developed at present is the technology of producing water from the atmosphere. This technology is desirable to condense water vapor. The amount of condensed water is proportional to the amount of heat transferred, which is related to the thickness of the layer and the temperature difference between the steam and the surface. The purpose of this study was to determine the effect of the number of heat sink fins on the temperature in the box in a water-generating technology device from atmospheric air. Variation of heat sink fins, namely 4 fins, 6 fins, 8 fins with an angle of 750. The test results show that the number of heat sink fins has an effect on the temperature distribution of each test point in the space of atmospheric water producing technology.
Downloads
References
[2]. Carson T. Tangan, Steffen Peuker., 2019, “An experimental study of the influence of orientation on water condensation of a thermoelectric cooling heatsink,” Elsevier.
[3]. Chakib Alaoui, 2011, "Peltier Thermoelectric Modules Modeling and Evaluation", International Journal of Engineering (IJE), Volume 5, Issue 1.
[4]. Nandy aditya, dkk, 2014. "A Project on Atmospheric Water Generator with the Concept of Peltier Effect", International Journal of Advanced Computer Research, Volume 4, Issue 15. MCKV Institute of Engineering under West Bengal University of Technology (WBUT).
[5]. Gupta Rohan., Gupta Jogesh., Gupta Ajay., & Mahadik Uday. 2016. “Water Through Air Using Peltier Elements”. JSTE - International Journal of Science Technology & Engineering, Volume 2, ISSN (online): 2349-784X.
[6]. Darwin Setiyawan, 2017, “Eksperimen Penghasil Air Tawar Dari Udara Menggunakan Thermoelektrik Cooler Untuk Kebutuhan Air Minum Di Lifeboat”, ITS, Surabaya.
[7]. Carson T. Tangan, Steffen Peuker (2019), An experimental study of the influence of orientation on water condensation of a thermoelectric cooling heatsink. http://doi.org/10.1016/j.heliyon.2019.e02752
[8]. Boedisantoso Rachman dan Hermana Joni, 2010, “Kondensasi”, Buku Ajar softcopy file. Surabaya.
[9]. Irawan, B., 2001, “Penyerapan energy matahari dengan Kolektor pelat Datar”, Jurnal Bisnis dan Teknologi, Vol. 9, No. 2. Hal. 314-318.
[10]. Yudi, Hendra. 2013. Kondensasi. Diambil 04 Februari 2019 dari: http://ilmupembangkit.wordpress.com/2013/05/11/kokondensa/.
[11]. Wirjohamidjojo, S. & Y.S. Swarinoto. (2007). Praktek Meteorologi Pertanian. Jakarta: Badan Meteorologi dan Geofisika.
[12]. Kurniawan. A., 2014, Pengembangan Semikonduktor Tipe-P Untuk Modul Termoelektrik Berbasis Material ZnO.
[13]. Purwoko. Y. P., 2014, Perancangan Portable Cool Box Berbasis Termolektrik & Heatsink Fan.
[14]. S. B. Riffat, S. A. Omer Xiali Ma, 2001, “ A Novel Thermoelctric Refrigeration System Employing Heat Pipes and a Phase Change Material: An Experience Investigation”. Jurnal of Renewable Energy, 23, pp. 313-323.
