Experimental Design of Small Horizontal Axis Wind Turbine for Home Electricity
DOI:
https://doi.org/10.59573/emsj.8(6).2024.5Keywords:
Al-Bayda-Libya, Horizontal axis wind turbine (HAWT), Wind power's design Aerodynamic, Wind speed, Betz limit, Power Generation, Local Ecology, wind turbine blades, Gearbox, Generators, Converter, Anemometer, Tachometer, MultimeterAbstract
In recent years, the energy production by wind turbines has been increasing, because its production is environmentally friendly; therefore, the technology developed for the production of energy through wind turbines brings great challenges in the investigation. The use of wind energy worldwide has overgrown in recent years to reduce greenhouse gas emissions. Wind power is free, but the installation and maintenance of wind turbines still remain costly. Wind vitality is the second biggest wellspring of sustainable power source after hydropower. However, it has not yet accomplished full matrix equality with fossil vitality sources. In this work experimental design of small HAWT for home electricity has been designed and analysed in the laboratory at the Libyan Academy for Postgraduate Studies, Al-Bayda-Libya. Experimental work was used in this paper to evaluate the wind energy data in Al-Bayda, East of Libya. The field tests and measurements proved that the present turbine is efficient and has long life-time and needs minimum maintenance. Wind turbines convert wind energy into electricity. The efficiency of this conversion is measured by comparing the incoming winds speed and the output power. From the experimental work it was found that the present turbine is efficient, easy to construct and assembly, has long life-time and needs minimum maintenance, suitable for different sites such as urban, suburban, rural, and sea coast and the output power of the turbine covers the consumption of many electric devices.
References
Abdul-Wahab, S. A., Fessehaye, M., Yetilmezsoy, K., Al-Ghafir, A., Al-Barashdi, A., Al-Hajri, N., & Al-Bulushi, S. (2019). Optimization of an inverted multi-stage double slope solar still: An environmentally friendly system for seawater purification. Desalination and water treatment, 141, 42-50.
Abdul-Wahab, S., Charabi, Y., Al-Mahruqi, A. M., Osman, I., & Osman, S. (2019). Selection of the best solar photovoltaic (PV) for Oman. Solar Energy, 188, 1156-1168.
Abdunnabi, M. I. R., & Loveday, D. L. (2014). In-Situ Measurements of the Performance of Thermosyphon Solar Water Heating Systems in Libya. Solar Energy and Sustainable Development, 3.
Ahmida, M. A., Elmaryami, A. S., Boukhrias, F. G. A., & El Menshaz, A. M. A. (2022). Investigation of Using Physical Optical Reflectivity Probes in Evaluating and Monitoring Powder Mixtures of Sugar and Slag. Instrumentation, Mesures, Métrologies, 21(2).
Akpinar, E. K., & Akpinar, S. (2006). An assessment of wind turbine characteristics and wind energy characteristics for electricity production. Energy Sources, Part A, 28(10), 941-953.
Alsuessi, W. (2015). General electricity company of Libya (GECOL). Eur. Int. J. Sci. Technol, 4(1), 1-9.
American Wind Energy Association. (2012). US Wind Industry: fourth quarter 2011 market report. American Wind Energy Association, Washington, DC, USA.
Bahgat, G. (2011). An Interdisciplinary Approach to Energy Security. John Wiley & Sons.
Bauer, J. R. (2015). Forging environmentalism: justice, livelihood, and contested environments. Routledge.
Boyle, G. (1996). Renewable Energy: power for a sustainable future. Journal of Energy Literature, 2, 106-107.
Caduff, M., Huijbregts, M. A., Althaus, H. J., Koehler, A., & Hellweg, S. (2012). Wind power electricity: the bigger the turbine, the greener the electricity?. Environmental science & technology, 46(9), 4725-4733.
Charabi, Y., Al Hinai, A., Al-Yahyai, S., Al Awadhi, T., & Choudri, B. S. (2019). Offshore wind potential and wind atlas over the Oman Maritime Zone. Energy, Ecology and Environment, 4, 1-14.
Da Rosa, A. V., & Ordonez, J. C. (2021). Fundamentals of renewable energy processes. Academic Press.
Dolatabadi, A., Mohammadi-Ivatloo, B., Abapour, M., & Tohidi, S. (2017). Optimal stochastic design of wind integrated energy hub. IEEE Transactions on Industrial Informatics, 13(5), 2379-2388.
Ekhlat, M., Salah, I. M., & Kreama, N. M. (2007). Energy and Sustainable Development in Libya. Regional Activity Centre, Sophia Antipolis.
Elkinton, C. N., Manwell, J. F., & McGowan, J. G. (2008). Algorithms for offshore wind farm layout optimization. Wind engineering, 32(1), 67-84.
Elmaryami, A. S. (2008). Effect of thermal cycling on hardness of plain carbon steels. In Materials Science and Technology Conference and Exhibition, MS&T (Vol. 8, pp. 1502-1514).
Elmaryami, A. S. A., Alsoussi, A. A., Gomaa, M., & Abd-Allah, E. (2017). Determination the cooling time, rate of cooling, jominy distance and the hardness during heat transfer of quenched steel bar. Journal of Science-Garyounis University, 38(5), 0-11.
Elmaryami, A. S. A., Elshayeb, M., Omar, H. B. B., Basu, P., & Hasan, S. B. H. (2013). Development of a numerical model of quenching of steel bars for determining cooling curves. Metal Science and Heat Treatment, 55(3), 216-219.
Elmaryami, A. S. A., OMAR, B., SA, M., AK, A., BE, W., & AA, M. (2015). Study of LHP and Effect of Radius in Heat Treated steel 1045 Bar by 1-D FEM Modeling. International Journal of Engineering, 7(05), 8269.
Elmaryami, A. S. A., Salem, S. A., Omar, M. H., Saad, A. S., & Ali, K. R. (2020). Corrosion rate calculation of carbon steel (0.4% C) after subjected to thermal cycling, sea water cooled. Carbon, 100, 0-40.
Elmaryami, A. S. A., Sousi, A., Saleh, W., Abd El-Mawla, S. E. M., & Elshayb, M. (2019). Maximum allowable thermal stresses calculation of water tube boiler during operation. International Journal of Research-Granthaalayah, 7(7), 191-199.
Elmaryami, A. S., & Abdimanam, E. (2007). Effect of thermal cycling on the corrosion and microstructure of plain carbon steels. Materials Science and Technology-Association for Iron and Steel Technology, 6, 3771.
Elmaryami, A. S., & Badrul, O. (2021). Unsteady state computer simulation of 2 chromium steel at 925 C as austenitizing temperature to determine the lowest hardness point (LHP). Journal of Metallurgical & Materials Engineering, 18(2), 79-91.
Elmaryami, A. S., & Mohamed, A. A. (2023). A novel 2-D mathematical modeling to determine LHP to protect the industrial transient heat treatment quenched low carbon steels bar. Zastita Materijala, 64(3), 327-339.
Elmaryami, A. S., & Omar, B. (2011). Developing 1-D mm of axisymmetric transient quenched molybdenum steel AISI-SAE 4037H to determine lowest hardness point. Journal of Metallurgy and Materials Science, 53(3), 289-303.
Elmaryami, A. S., & Omar, B. (2011). Effect of austenitizing temperatures on hardness of two chromium steel quenched in sea water by unsteady state computer simulation. In Materials Science & Technology [MS&T’11] Conference & Exhibition.
Elmaryami, A. S., & Omar, B. (2012). Determination LHP of axisymmetric transient Molybdenum steel-4037H quenched in sea water by developing 1-d mathematical model. Metallurgical and Materials Engineering, 18(3), 203-222.
Elmaryami, A. S., & Omar, B. (2012). Developing 1-dimensional transient heat transfer axi-symmetric MM to predict the hardness, determination LHP and to study the effect of radius on E-LHP of industrial quenched steel bar. Heat Transfer Phenomena and Applications, 153-182.
Elmaryami, A. S., & Omar, B. (2012). Developing 1D MM of axisymmetric transient quenched chromium steel to determine LHP. Journal of Metallurgy, 2012(1), 539823.
Elmaryami, A. S., & Omar, B. (2012). Modeling LHP in carbon steel-1045 during quenching. Journal of Mathematical Theory and Modeling, 2(12), 35-47.
Elmaryami, A. S., & Omar, B. (2012). Modeling the lowest hardness point in a steel bar during quenching. Materials Performance and Characterization, 1(1), MPC104386.
Elmaryami, A. S., & Omar, B. (2013). Effect of radius on temperature history of transient industrial quenched chromium Steel-8650H by developing 1-D MM. Applied Mathematical Sciences, 7(10), 471-486.
Elmaryami, A. S., & Omar, B. (2013). Modeling the effect of radius on temperature history of transient quenched boron steel. Acta Metallurgica Slovaca, 19(2), 105-111.
Elmaryami, A. S., & Omar, B. (2021). A Novel (1-D) Mathematical Modeling to Determine (E-LHP) of Industrial Transient Heat Transfer Quenched Chromium Steel 5147H, Sea Water Cooled. Tecnica Italiana-Italian Journal of Engineering Science, 65(1), 74-78.
Elmaryami, A. S., & Omar, B. B. (2011, August). The lowest hardness point calculation by transient computer simulation of industrial steel bar quenched in oil at different austenitizing temperatures. In 2011 International Conference on Management and Service Science (pp. 1-6). IEEE.
Elmaryami, A. S., & Omar, B. B. (2013). Transient Computer Simulation of Industrial Quenched Steel Bar to Determine the Lowest Hardness Point of Molybdenum and Boron Steel at 850 C as Austenitizing Temperature Quenched in Different Medium. International Journal of Materials Science, 8(1), 13-28.
Elmaryami, A. S., Hasan, S. B. H., Omar, B., & Elshayeb, M. (2009, October). Unsteady state hardness prediction of industrial quenched steel bar [one and two dimensional]. In Materials science and technology conference and exhibition (MS & T'09) (pp. 1514-1520).
Elmaryami, A., Khalid, H. M. B., Abdulssalam, A. M., Abdulssalam, A. A., Alssafi, M. M., Abdullateef, A. S., & Mohamed, Z. A. (2021). Design of a Simple Model of SPP to Study the Effect of Increasing the Boiler Pressure on the Efficiency of the Model. Engineering &Amp; Technology Review, 2(1), 1-7.
Elmaryami, A., Khalid, H. M., Alamaria, A., Alashebe, O., Ali, S., Salem, A., & Khaled, R. (2021). Determination the Corrosion Rate of Carbon Steel (0.4% C) Due to Thermal Cycling, Oil Cooled. Tecnica Italiana-Italian Journal of Engineering Science, 65(1), 74-78.
Energy, G. E. (2010). Western wind and solar integration study (pp. 1-536). NREL/SR-550-47434. Golden, Colorado: National Renewable Energy Laboratory.
Energy, G. L. R. W. (2010). Eastern wind integration and transmission study. Technical Report, National Renewable Energy Laboratory (NREL).
Fogarty, T., & Lamb, R. (2012). Investing in the renewable power market: how to profit from energy transformation. John Wiley & Sons.
Gaddada, S., & Kodicherla, S. P. K. (2016). Wind energy potential and cost estimation of wind energy conversion systems (WECSs) for electricity generation in the eight selected locations of Tigray region (Ethiopia). Renewables: Wind, Water, and Solar, 3, 1-13.
Gazzo, A., Gousseland, P., Verdier, J., Kost, C., Morin, G., Engelken, M., ... & Eichhammer, W. (2011). Middle east and north Africa region assessment of the local manufacturing potential for concentrated solar power (csp) projects.
Ghodsi, M., Ziaiefar, H., Mohammadzaheri, M., & Al-Yahmedi, A. (2019). Modeling and characterization of permendur cantilever beam for energy harvesting. Energy, 176, 561-569.
Gielen, D. (2012). Renewable energy technologies: cost analysis series. Sol photovolt, 1(1), 52.
Hallett, D., & Clark-Lowes, D. (2017). Petroleum geology of Libya. Elsevier.
Harvey, D. (2010). Energy and the new reality 1: Energy efficiency and the demand for energy services. Routledge.
Hiscock, G. (2012). Earth Wars. The Battle for Global Resources: Wiley, 241.
Ibrahim, S. (2006). Prospects of renewable energy in Libya. Al-Fateh University, Tripoli.
Khalil, A., & Asheibe, A. (2015, November). The chances and challenges for renewable energy in Libya. In The Proceedings of the Renewable Energy Conference (pp. 1-6).
Khare, V., Nema, S., & Baredar, P. (2016). Solar–wind hybrid renewable energy system: A review. Renewable and Sustainable Energy Reviews, 58, 23-33.
Kodicherla, S. P. K., Gaddada, S., & Shaik, N. (2017). Wind energy potential and economic evaluation of WPS using WECSs in three selected locations of Northern Ethiopia. African Journal of Science, Technology, Innovation and Development, 9(2), 179-187.
Kodicherla, S. P. K., Kan, C., & Nanduri, P. R. K. (2020). Likelihood of wind energy assisted hydrogen production in three selected stations of Fiji Islands. International Journal of Ambient Energy, 41(7), 823-832.
Kurokawa, K. (2014). Energy from the Desert: Feasability of Very Large Scale Power Generation (VLS-PV). Routledge.
Kurokawa, K., Ito, M., Komoto, K., Vleuten, P., & Faiman, D. (2009). Energy from the desert. Very large scale photovoltaic systems: socio-economic, financial, technical and environmental aspects. Executive summary.
Lindenberg, S. (Ed.). (2009). 20% Wind Energy By 2030: Increasing Wind Energy¿ s Contribution to US Electricity Supply. Diane publishing.
Martinez, L. (2007). The Libyan Paradox. New York.
Mason, M., & Mor, A. (Eds.). (2009). Renewable energy in the Middle East: Enhancing security through regional cooperation. Springer Science & Business Media.
Michaelides, E. E. S. (2012). Alternative energy sources. Springer Science & Business Media.
Miller, G. T., & Spoolman, S. (2014). Sustaining the earth. Cengage Learning. Cengage Learning.
Mohamed, A. M., Al-Habaibeh, A., & Abdo, H. (2013). An investigation into the current utilisation and prospective of renewable energy resources and technologies in Libya. Renewable energy, 50, 732-740.
Mohamed, O. A., & Masood, S. H. (2018, June). A brief overview of solar and wind energy in Libya: Current trends and the future development. In IOP Conference Series: Materials Science and Engineering (Vol. 377, No. 1, p. 012136). IOP Publishing.
Mone, C., Hand, M., Bolinger, M., Rand, J., Heimiller, D., & Ho, J. (2017). 2015 cost of wind energy review.
Mostafaeipour, A., & Mostafaeipour, N. (2009). Renewable energy issues and electricity production in Middle East compared with Iran. Renewable and Sustainable Energy Reviews, 13(6-7), 1641-1645.
Mukherjee, D., & Chakrabarti, S. (2004). Fundamentals of renewable energy systems. New Age International.
Mulvaney, D. (Ed.). (2011). Green energy: an A-to-Z guide (Vol. 1). Sage.
Nema, P., Nema, R. K., & Rangnekar, S. (2009). A current and future state of art development of hybrid energy system using wind and PV-solar: A review. Renewable and sustainable energy reviews, 13(8), 2096-2103.
Olsson, G. (2015). Water and energy: threats and opportunities. IWA publishing.
Omar, B., & Elmaryami, A. S. (2013). Developing 1-D MM of transient industrial quenched chromium steel-5147H to study the effect of radius on temperature history. Advanced Materials Research, 711, 115-127.
Omar, B., Elshayeb, M., Elmaryami, A. S., & Pahat, B. (2009). The microstructures and corrosion of carbon steel after subjected to heat treatment then thermal cycling, water cooled. In 5th European Metallurgical Conference (Vol. 1, No. 4, pp. 1492-1495).
Otman, W., & Karlberg, E. (2007). The Libyan economy: economic diversification and international repositioning. Springer Science & Business Media.
Pacetti, M., Passerini, G., Brebbia, C. A., & Latini, G. (Eds.). (2012). The Sustainable City VII: Urban Regeneration and Sustainability (Vol. 155). Wit Press.
Pérez, J. M. P., Márquez, F. P. G., Tobias, A., & Papaelias, M. (2013). Wind turbine reliability analysis. Renewable and Sustainable Energy Reviews, 23, 463-472.
Schwartz, M., Heimiller, D., Haymes, S., & Musial, W. (2010). Assessment of offshore wind energy resources for the United States (No. NREL/TP-500-45889). National Renewable Energy Lab. (NREL), Golden, CO (United States).
Sioshansi, F. (Ed.). (2011). Energy, sustainability and the environment: technology, incentives, behavior. Elsevier.
Smith, J. C., O'Malley, M., Osborn, D., Piwko, R., & Thomas, R. J. (2012, January). R&d requirements for integration of wind generation. In 2012 45th Hawaii International Conference on System Sciences (pp. 1987-1996). IEEE.
Sorensen, B. (2010). Renewable Energy: Physics, Engineering, Environmental Impacts. Economics and Planning.
Ummel, K., & Wheeler, D. (2008). Desert power: the economics of solar thermal electricity for Europe, North Africa, and the Middle East. Center for Global Development Working Paper, (156).
Vision, W. (2015). A new era for wind power in the United States. US Department of Energy, 22, 23.
Wiser, R. H., & Bolinger, M. (2019). 2018 wind technologies market report.
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