A Portable Vortex Mixer With Object Detection Sensors Using TFT ILI9341 Control Display
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Abstract
A vortex mixer can be utilized for repetitive sample-mixing tasks that need execution over a predetermined period. The subject of this study is a device known as a vortex mixer, which is used to rapidly homogenize liquids in a compact container. The module's design aims to produce a portable vortex mixer with an object detector for use in the solution-mixing process. The module comprises a circuit controlled by ESP32, an infrared sensor for object detection, and a TFT LCD ILI9341 for display. A charging battery can also charge this device, making it easier to transport. This instrument has three degrees of speed: the low-level ranges from 300 to 500 RPM, the medium level ranges from 600 to 1500 RPM, and the high level extends from 1600 to 2500 RPM. The results reveal that the motor speed accuracy of the vortex mixers is low at 95.78%, medium at 97.49%, and high at 99.19%. Moreover, the battery life is lengthy, with an average charging time of 2.62 hours and a discharging time of 9.7 hours for 300 RPM; 7.34 hours for 600 RPM; and 3.03 hours for 1600 RPM, respectively.
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References
Permenkes. PMK-RI No.65 Th.2016 Standart Pelayanan Elektromedik. Stand Pelayanan Elektromedik. 2016;(2016):46.
Rogovyi A, Korohodskyi V, Khovanskyi S, Hrechka I, Medvediev Y. Optimal design of vortex chamber pump. In: Journal of Physics: Conference Series. IOP Publishing Ltd; 2021.
Fischer M, Chakravarty S, Le Bihan O, Morgeneyer M. Parametric study of the particle motion induced by a vortex shaker. Powder Technol. 2020:1(374):70–81.
Patel AK, Henry R, Jha A, Patwardhan A, Pawar J. Design and Fabrication of Low Cost Vortex Mixer Using Additive Manufacturing Synthesis of metal oxide nanoparticles for Biological applications. View project Design and Fabrication of Low Cost Vortex Mixer Using Additive Manufacturing. Int J Res Advent Technol. 2018;6(12):3513-3516.
Mejia-Ariza R. Design, Synthesis, and Characterization of Magnetite Clusters using a Multi Inlet Vortex Mixer. Blacksburg, Virginia; 2010.
Astuti L. Vortex Mixer Otomatis Berbasis Mikrokontroler ATmega328. J TEMIK (Teknik Elektromedik). 2019;3(3):22–39.
Yang AS, Hsieh YF, Kuo LS, Tseng LY, Liao SK, Chen PH. A novel vortex mixer actuated by one-shot electricity-free pumps. Chem Eng J. 2013:5(228):882–8.
A. N. Aisyah, E. D. Setionigsih, and Lamidi a. Vortex Mixer Live Rpm Dilengkapi Sensor Pendeteksi Tabung. J Tek Elektromedik. 2017;1(10).
Barabash VM, Abiev RS, Kulov NN. Theory and Practice of Mixing: A Review. Vol. 52, Theoretical Foundations of Chemical Engineering. Maik Nauka Publishing/Springer SBM; 2018. p. 473–87.
A.C. dan Q.R. Ramadani. Tujuh Alat yang Bisa Bantu Menghemat Biaya Listrik. 2021 Mei 26; Available from: https://www.republika.co.id/berita/qo09je425/tujuh-alat-yang-bisa-bantu-menghemat-biaya-listrik
Yunardi RT. Analisa Kinerja Sensor Inframerah dan Ultrasonik untuk Sistem Pengukuran Jarak pada Mobile Robot Inspection. Setrum Sist Kendali-Tenaga-elektronika-telekomunikasi-komputer. 2017;6(1):33.
Jaguemont J, Darwiche A, Bardé F. Optimal Fast-Charging Strategy for Cylindrical Li-Ion Cells at Different Temperatures. World Electr Veh J. 2024 Jul 24;15(8):330.
Jaguemont J, Darwiche A, Bardé F. 2024. Optimal fast-charging strategy for cylindrical Li-ion cells. 2024:15(8):1-14.
Liu Y, Liao YG, Lai MC. Effects of battery pack capacity on fuel economy of hybrid electric vehicles. In: 2021 IEEE Transportation Electrification Conference and Expo, ITEC 2021. Institute of Electrical and Electronics Engineers Inc.; 2021. p. 771–5.