The effect of variations in electric load on the performance of a 3 kW Micro Hydro Power Plant using an undershot waterwheel
Abstract
The purpose of this study is to evaluate the performance of the undershot water wheel type with a 3 kW generator as a micro-hydro power plant that generates electricity by utilizing water power from paddy fields and local resources. Where the irrigation canal can irrigate approximately 247 hectares of rice fields during the dry season. The research technique employs a waterwheel with a 1.1-meter diameter, 12 blades with a 70-centimeter blade arm length, and a 2-inch shaft diameter. The transmission system employs a chain to increase rotation and decrease slippage and rotation losses, making it simpler to drive the generator to produce electricity. The test was conducted by varying the lamp capacity from 100 W to 800 W while maintaining constant water discharge and flow. Water discharge, water head, generator rotation, electric current traveling through the load, and output voltage are the test parameters. With a discharge of 0.476 m3/s, a water flow speed of 3.229 m/s, a waterwheel rotation of 42.39 rpm, and electric power of 207 W, the utmost efficiency value of 8.35% was determined.
Keywords
Full Text:
PDFReferences
Herlambang, Y. D., Supriyo, Prasetiyo, B., Alfauzi, A. S., Prasetyo, T., Marliyati, Arifin, A., (2022). Experimental and Simulation Investigation on Savonius Turbine- Influence of Inlet-Outlet Ratio Using a Modified Blade Shaped to Improve Performance. Joint Journal of Novel Carbon Resource Sciences & Green Asia Strategy, 9 (2), 457-464.
Warjito, Adanta, D., Arifianto, S.A., Nasution, S.B., & Budiarto. (2018). Effect of blade number on undershot waterwheel performance with variable inlet velocity. 4th International Conference on Science and Technology (ICST), Yogyakarta, Indonesia.
Quaranta, E., & Muller, G. (2019). Optimization of undershot water wheels in very low and variable flow rate applications. Journal of Hydraulic Research, 1-15.
Wong, I.L.K., Buku, A., Latupeirissa, J.E., & Tiwouy, H.C.P. (2019). Performance of undershot waterwheel curved blade of the laboratory scale. Materials Science Forum, 967, 250-255.
Frank M. White. (2003). Fluid Mechanics. 5th edition, McGraw-Hill, University of Rhode Island, USA.
Sari, D.P., Helmizar, Syofii, I., Darlius, & Adanta, D. (2020). The effect of the ratio of wheel tangential velocity and upstream water velocity on the performance of undershot waterwheels, Journal of Advanced Research in Fluid Mechanics and Thermal Sciences, 65(2), 170-177.
Warjito, W., Adanta, D., Budiarso, B., Nasution, S.B.S., & Kurnianto, M.A.F. (2020). The Effect of Blade Height and Inlet Height in a Straight-Blade Undershot Waterwheel Turbine by Computational Method. CFD Letters, 11(12), 66-73.
Wong, I.L.K., Latupeirissa, J.E., & Tiwouy, H.C.P. (2018). A Laboratory Scale Curve Bladed Undershot Water Wheel Characteristic as an Irrigation Power, International Journal of Mechanical Engineering and Technology, 9(9), 1048-1054.
Setyawan, E.Y., Djiwo, S., Praswanto, D.H., Suwandono, P., & Siagian, P. (2019), Design of low flow undershot type water turbine, Journal of Science and Applied Engineering, 2(2), 50-55..
Kikuchi, Y., Kiwata, T., Watada, S, & Kono, T. (2018), Experimental study on performance of undershot water wheel in snow drainageway at shiramine district by field test, Advanced Experimental Mechanics, 3, 104-110.
Promdee, C., and Photong, C., 2016, Sustainability assessment of hydropower water wheels with downstream migrating fish and blade strike modelling, Sustainable Energy Technologies and Assessments, 43, 100943.
Syofii, I., Sari, D.P., Adanta, D., Saputra, M.A.A., & Wadirin. (2022). Moving Mesh as Transient Approach for Pico Scale Undershot Waterwheel, CFD Letters, 14(8), 33-42.
Todorov, G., Kamberov. K., & Semkov M. (2021). Improvement of undershot water wheel performance through virtual prototyping, Application of Mathematics in Engineering and Economics, 2333, 110011-1-110011-7.
Buku, A., & Tangaran, B. (2020). Planning of Flat Plate Undershot Waterwheel as Mini Hydro Power Plant and Irrigation Power in Remote Areas, International Journal of Advanced Research in Engineering and Technology, 11(12), 342-349.
Darmawi, Bizzy, I,m Sipahutar, R., & Marwani. (2022). Undershot Floating Waterwheel a Concept of Small Hydropower Energy Development for Rural Areas of Indonesia, Journal of Mechanical Engineering Research and Developments, 45(2), 3-9.
Hameed, J.A., Saeeed, A.T., & Rajab, M.H. (2019). Design and Study of Hydroelectric Power Plant by Using Overshot and Undershot Waterwheelsel, International Journal of Energy optimization.. International Journal of Energy Optimization and Engineering, 8(4), 2019.
Antar, E., and Elkhoury, M., 2019, Parametric sizing optimization process of a casing for a Savonius vertical axis wind turbine, Renew. Energy., 136, 127-138.
Manganhar, A.L., Rajpar, A.H., Luhur M.R., Samo, S.R., and Manganhar, M., 2019, Performance analysis of a Savonius vertical axis wind turbine integrated with wind accelerating and guiding rotor house, Renew. Energy., 136, 512-520.
Saad, A.S., Sharkawy, I.I., Ookawara, S., and Ahmed, M., 2020, Performance enhancement of twisted-bladed Savonius vertical axis wind turbines, Energy Convers. Manag., 209, 112673, 1-19.
Alipour, R., Alipour, R., Fardian, F., Koloor, S.S.R., and Petru, M., 2020, Performance improvement of a new proposed Savonius hydrokinetic turbine: a numerical investigation, Energy Rep., 6, 3051-3066.
Nimvari, M.E., Fatahian, H., and Fatahian, E., 2020, Performance improvement of a Savonius vertical axis wind turbine using a porous deflector, Energy Convers. Manag., 220, 113062, 1-13.
Sharma, S., and Sharma, R.K., 2016, Performance improvement of a Savonius rotor using multiple quarter blades-A CFD investigation, Energy Convers. Manag., 127, 43-54.
Zemamou, M., Aggour, M., and Toumi, A., 2017, Review of Savonius wind turbine design and performance, Energy Procedia., 141, 383-388.
Belmili, H., Cheikh, R., Smail, T., Seddaoui, N., and Biara, R.W., 2017, Study, design, and manufacturing of hybrid vertical axis Savonius wind turbine for urban architecture, Energy Procedia., 136, 330-335.
Goh, S.C., Boopathy, S.R., Krishnaswami, C., and Schluter, J.U., 2016, Tow testing of savonius wind turbine above a bluff body complemented by CFD simulation, Renew. Energy., 87, 332-345.
DOI: http://dx.doi.org/10.30811/jpl.v21i2.3195
Refbacks
- There are currently no refbacks.
This work is licensed under a Creative Commons Attribution-ShareAlike 4.0 International License.
Ciptaan disebarluaskan di bawah Lisensi Creative Commons Atribusi-BerbagiSerupa 4.0 Internasional .
Alamat Surat :
Politeknik Negeri Lhokseumawe
Jl. Banda Aceh-Medan Km 280
Buketrata, Lhokseumawe, 24301, Aceh, Indonesia