FIELD TEST STUDY ON THE PERFORMANCE OF SIX-BLADE SPIRAL HORIZONTAL AXIS WIND TURBINE RELATED TO THE EFFECT OF SOLIDITY NUMBER
DOI:
https://doi.org/10.22441/jtm.v13i3.18922Keywords:
Spiral Blade TASH, Solidity Number, power coefficient Cp, torque coefficient Ct, Tips Speed RatioAbstract
Fossil fuels are still a daily necessity in the world. Human dependence on fossil fuels has created problems related to pollution and energy security. Wind turbines are renewable energy power plants where their use is expected to be an unlimited alternative energy source. This wind turbine research uses a field test study method with a six-blade spiral horizontal axis wind turbine (TASH) type. TASH performance is assessed by measured parameters such as rated voltage, generator output current and torque value; also non-dimensional parameters such as power coefficient, Cp, torque coefficient, Ct and Tip Speed Ratio, TSR values generated due to TASH rotation at every wind speed from 3.0 m/s to 4.5 m/s wind speed. Field test results obtained: Actual power (experimental) = 5.50 Watt and torque value = 10.7 N.m at a wind speed of 4.5 m/s. Cp = 0.0083, Ct = 1.2180, and TSR = 0.0068 at a wind speed of 3.0 m/sThe solidity value obtained based on the calculation results is 1.627 for a 5-blade wind turbine, while for a 6-blade and 8-blade wind turbine, the solidity values are 1.953 and 2,604. As the turbine solidity value increases, the power coefficient will also increase, inversely proportional to the torque coefficient, that as the turbine solidity value increases, the torque coefficient will decreaseDownloads
References
B. Prasetiyo. “Turbin Angin Sumbu Horizontal Tipe Tsd 500 Pada Beban Konstan.” Jurnal Teknik Energi. Vol. 11. No. 3. Pp. 75–78. 2015.
M. Aditif Et Al.. “International Journal Of Engineering & Advanced Technology (Ijeat)”. Doi: 10.35940/Ijeat.
M. F. Ramlee. S. Zishan. W. K. Muzammil. And A. Fazlizan. “Numerical Investigation Of Solidity Effect Based On Variable Diameter On Power Performance Of H-Type Darrieus Vertical Axis Wind Turbine (Vawt).” International Journal Of Renewable Energy Development. Vol. 11. No. 3. Pp. 647–660. Aug. 2022. Doi: 10.14710/Ijred.2022.44431.
A. Darmawan And F. Winjaya. “Rancang Bangun Turbin Angin Aksis Vertikal Sebagai Alternatif Catu Daya Pada Perlintasan Sebidang Perkeretaapian.” Jurnal Perkeretaapian Indonesia. Vol. Iii. 2019.
R. Nanang. E. Sarwono. J. Jenderal Ahmad Yani No. K. Pontianak. And K. Barat. “Study Eksperimental Berbagai Macam Jenis Sudu Turbin Angin Sumbu Horisontal Skala Laboratorium.”
F. Muhammad Akbar And C. Rangkuti. “Pengujian Kinerja Turbin Angin Kombinasi Darrieus-Savonius.” 2018.
D. H. Didane. N. Rosly. M. F. Zulkafli. And S. S. Shamsudin. “Performance Evaluation Of A Novel Vertical Axis Wind Turbine With Coaxial Contra-Rotating Concept.” Renew Energy. Vol. 115. Pp. 353–361. Jan. 2018. Doi: 10.1016/J.Renene.2017.08.070.
S. Tekşin And M. Kurt. “Energy. Environment And Storage Investigation Of The Solidity Ratio In A Horizontal Wind Turbine.” 2021.
T. Halawa. M. Fouad. And M. E. M. A. Khers. “Optimization Of The Power Coefficient Of A Savonius Wind Turbine By Changing The Shape Of Blades.” 2022.
P. Ghiasi. G. Najafi. B. Ghobadian. A. Jafari. And M. Mazlan. “Analytical Study Of The Impact Of Solidity. Chord Length. Number Of Blades. Aspect Ratio And Airfoil Type On H-Rotor Darrieuswind Turbine Performance At Low Reynolds Number.” Sustainability (Switzerland). Vol. 14. No. 5. Mar. 2022. Doi: 10.3390/Su14052623.
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