The role of different positions of tidal turbines for energy extraction in Qeshm channel

Document Type : Original Article

Authors

1 Assistant Professor of physical oceanography, Department of Nonliving Resources of Atmosphere and Ocean, Faculty of Marine Science and Technology, University of Hormozgan

2 PhD candidate of physical oceanography, Department of Nonliving Resources of Atmosphere and Ocean, Faculty of Marine Science and Technology, University of Hormozgan

Abstract

The use of renewable energy instead of oil and gas reservoirs in the Persian Gulf can be a good platform for renewable energy farms. This study investigates the energy generated by the tidal flow velocity in the Qeshm channel, using a three-dimensional hydrodynamic model, MIKE3, Flow Model FM. By installing a hypothetical tidal turbine from Voith Company, with a diameter of 1 m at seven different stations of the model (respectively from east to west of the channel), the tidal energy from the horizontal flow of the area is calculated. In the mentioned simulation, wind stress and thermohaline flow are ignored so that the dominant current is the current caused by the change of water level due to the tide. The flow velocity pattern in spring and neap tides at Higher High Water (HHW) was then analyzed at the seven stations. The energies of the simulated currents showed that the east side of the channel had more energy potential on the days of spring tides, so that at IP1 station, in the first spring tide, 175 watts of electricity is generated, which in the second spring tides decreases by 28.5%. On the other hand, the west side of the channel had the potential to generate electricity in neap tides. Station IP6 had the potential to generate electricity in both the spring and neap tides, which had more neap tides potential than the spring tides. The difference in power generated in the first and second neap tides at IP6 was only 0.7%, which is less than 30.2 W compared to the first and second spring tides. Therefore, it can be said that according to the shape of the region, the second bend of Qeshm channel was a more suitable place for energy extraction with the assumed tidal turbine in the region.

Keywords


1- Fox, C.J., Benjamins, S., Masden, E.A. and Miller, R., (2018), Challenges and opportunities in monitoring the impacts of tidal-stream energy devices on marine vertebrates. Renewable and Sustainable Energy Reviews, Vol.81, p.1926-1938.
2- Sverdrup, K.A., Duxbury, A. and Duxbury, A.C., (2006), Fundamentals of oceanography. McGraw-Hill Higher Education.
3- Liu, H.W., Ma, S., Li, W., Gu, H.G., Lin, Y.G. and Sun, X.J., (2011), A review on the development of tidal current energy in China. Renewable and sustainable energy reviews, Vol.15(2), p.1141-1146.
4- Gu, Y.J., Lin, Y.G., Xu, Q.K., Liu, H.W. and Li, W., (2018), Blade-pitch system for tidal current turbines with reduced variation pitch control strategy based on tidal current velocity preview, Renewable Energy, Vol.115, p.149-158.
5- Lee, J.H., Park, S., Kim, D.H., Rhee, S.H. and Kim, M.C., (2012), Computational methods for performance analysis of horizontal axis tidal stream turbines. Applied energy, Vol.98, p.512-523.
6- Talley, L.D., (2011), Descriptive physical oceanography: an introduction. Academic press.
7- Baker, C., (1991), Tidal power. Energy Policy, Vol.19(8), p.792-797.
8- Magagna, D. and Uihlein, A., (2015), Ocean energy development in Europe: Current status and future perspectives. International Journal of Marine Energy, Vol. 11, p.84-104.
9- Xia, J., Falconer, R.A. and Lin, B., (2010), Impact of different operating modes for a Severn Barrage on the tidal power and flood inundation in the Severn Estuary, UK. Applied Energy, Vol.87(7), p.2374-2391.
10- Zabihian, F. and Fung, A.S., (2011), Review of marine renewable energies: case study of Iran. Renewable and Sustainable Energy Reviews, Vol.15(5), p.2461-2474.
11- Rashid, A., (2012), Status and potentials of tidal in-stream energy resources in the southern coasts of Iran: A case study. Renewable and Sustainable Energy Reviews, Vol.16(9), p.6668-6677.
12- Uihlein, A. and Magagna, D., (2016), Wave and tidal current energy–A review of the current state of research beyond technology. Renewable and Sustainable Energy Reviews, Vol.58, p.1070-1081.
13- Sabbagh-Yazdi, S.R., Zounemat-Kermani, M. and Mastorakis, N.E., (2008), Simulation wetting and drying of mangrove forests due to tidal currents in Qeshm canal. International Journal of Mathematical Models and Methods in Applied Science, Vol.2(1) p.18-23.
14- Sabbagh-Yazdi, S.R. and Zounemat-Kermani, M., (2009), Numerical solution of tidal currents at marine waterways using wet and dry technique on Galerkin finite volume algorithm. Computers and fluids, Vol.38(10), p.1876-1886. doi:10.1016/j.compfluid.2009.04.010
15- ESRI, (2011), ArcGIS Desktop, 64-bit, Version 10.3, Released 2011, Redlands, CA: Environmental Systems Research Institute.
16- Barth, H. J., and Khan, N. Y. (2008), Biogeophysical setting of the Gulf. In Protecting the Gulf’s marine ecosystems from pollution, p.1-21. Birkhäuser Basel.
17- Sheppard, C., Price, A. and Roberts, C., (1992), Marine ecology of the Arabian region: patterns and processes in extreme tropical environments. London, Academic Press.
18- Reynolds, R.M., (1993), Physical oceanography of the Gulf, Strait of Hormuz, and the Gulf of Oman—Results from the Mt Mitchell expedition. Marine Pollution Bulletin, Vol.27, p.35-59.
19- Cordesman, A.H., (2007), Iran, oil, and the Strait of Hormuz. Washington: Center for Strategic and International Studies. p.2-4.
20- Al-Maamary, H.M., Kazem, H.A. and Chaichan, M.T., (2017), Renewable energy and GCC States energy challenges in the 21st century: A review. International Journal of Computation and Applied Sciences IJOCAAS, Vol.2(1), p.11-18.
21- Fazelpour, F., Soltani, N., Nazari, A. and Katal, F., (2015), Feasibility of satisfying electrical energy needs with wind-photovoltaic-battery hybrid power systems for a household in Qeshm Island Iran, International Congress Energy and Environmental Engineering and Management Conference, Paris, France.
22- Karbassi, A., Bidhendi, G.N., Saeedi, M. and Rastegari, A., (2010), Metals removal during estuarine mixing of Arvand River water with the Persian Gulf water. Open Geosciences, Vol.2(4), p.531-536.
23- Moeini, M.H., Etemad-Shahidi, A. and Chegini, V., (2010), Wave modeling and extreme value analysis off the northern coast of the Persian Gulf. Applied Ocean Research, Vol.32(2), p.209-218.
24- Yao, F., (2008), Water mass formation and circulation in the Persian Gulf and water exchange with the Indian Ocean. PhD thesis, University of Miami.
25- Mahmoudov, M., Chegini, V. and Montazeri Namin, M., (2011), Three-Dimensional Simulation of Qeshm Channel Currents. Journal of the Persian Gulf, Vol.2(3), p.9-16.
26- Foreman, M.G.G., (1979), Manual for tidal heights analysis and prediction. Pacific Marine Science Report 77-10, Institute of Ocean Sciences, Patricia Bay, Sidney, p.1-97.
27- Najafi, H.S. and Noye, B.J., (1997), Modelling tides in the Persian Gulf using dynamic nesting, PhD thesis, University of Adelaide.
28- Badri, M.A. and Wilders, P., (2012), Flow estimation for the Persian Gulf using a kelvin wave expansion. Indian Journal of Geo-Marine Science, Vol.41(3), p.249-258.
29- Emami, M., Soyuf Jahromi, M., and Behmanzadegan, A., (2019), Coastline Effect on Tidal Flow Pattern. Journal of Marine Science and Technology, Vol.18(2), p.12-25. (In Persian)
30- Moharir, R.V., Khairnar, K. and Paunikar, W.N., (2014), MIKE 3 as a modeling tool for flow characterization: A review of applications on water bodies. International Journal of Advanced Studies in Computers, Science and Engineering, Vol.3(3), p.32-43.
31- Li, P., Li, G., Qiao, L., Chen, X., Shi, J., Gao, F., Wang, N. and Yue, S., (2014), Modeling the tidal dynamic changes induced by the bridge in Jiaozhou Bay, Qingdao, China. Continental Shelf Research, Vol.84, p.43-53.
32- Kaiser, G., Scheele, L., Kortenhaus, A., Løvholt, F., Römer, H. and Leschka, S., (2011), The influence of land cover roughness on the results of high resolution tsunami inundation modeling. Natural Hazards and Earth System Sciences, Vol.11(9), p.2521-2540.
33- Villaret, C., Hervouet, J.M., Kopmann, R., Merkel, U. and Davies, A.G., (2013), Morphodynamic modeling using the Telemac finite-element system. Computers and Geosciences, Vol.53, p.105-113.
34- Kramer, S.C. and Piggott, M.D., (2016), A correction to the enhanced bottom drag parameterisation of tidal turbines. Renewable Energy, Vol.92, p.385-396.
35- Ershadi, S., Arasteh, M. and Tajziehchi, M., (2013), Numerical Modeling of Flow Pattern Changes in Tidal Inlet of TIYAB Port, Research Journal of Environmental and Earth Sciences, Vol.5(11), p.691-702.
36- Peykanpour, P., Bozorgi, M., Moein, M. and Shamaii, A., (2016), Tidal currents model of Persian Gulf, IIOABJ, Vol.7(5), p.293-301.
37- Radfar, S., Panahi, R., Javaherchi, T., Filom, S. and Mazyaki, A.R., (2017), A comprehensive insight into tidal stream energy farms in Iran. Renewable and Sustainable Energy Reviews, Vol.79, p.323-338.
38- UNESCO (1981) Tenth report of the joint panel on oceanographic tables and standards. UNESCO Technical Papers in Marine Science, Vol.36, p.1-28.
39- DHI., (2009), MIKE 21 & MIKE 3 Flow Model FM Hydrodynamic and Transport Module – Scientific Documentation, MIKE by DHI, Horsholm, Denmark.
42- Edalati, S., Ameri, M. and Iranmanesh, M., (2015), Estimating and modeling monthly mean daily global solar radiation on horizontal surfaces using artificial neural networks in south east of Iran, Journal of Renewable Energy and Environment, Vol.2 (1), p. 41-47.
43- The MathWorks Inc., (2016), MATLAB and Statistics Toolbox 64-bit, Version 2016a, Release 2016a, Natick, Massachusetts, USA.
44- Padman, L., and Erofeeva, S., (2005), Tide Model Driver (TMD) Manual. Earth and Space Research. Version 1.2. 28 November 2005.
46- Nirwansyah, A. W., & Braun, B. (2019), Mapping impact of tidal flooding on solar salt farming in Northern Java using a hydrodynamic model. ISPRS International Journal of Geo-Information, Vol.8(10), p.451.
47- ftp://ftp.oce.orst.edu/dist/tides/regional/PerS.tar.Z
48- http://volkov.oce.orst.edu/tides/PerS.html
49- https://tides4fishing.com/as/iran
50- Khosravi, M., Siadatmousavi, S.M., Vennell, R. and Chegini, V., (2018), The transverse dynamics of flow in a tidal channel within a greater strait. Ocean Dynamics, Vol.68(2), p.239-254.
51- Wood, D. (2006), MIKE BASIN. DHI water and environment, p.1-38.
52- Soleimani, K., Ketabdari, M.J. and Khorasani, F., (2015), Feasibility study on tidal and wave energy conversion in Iranian seas. Sustainable Energy Technologies and Assessments, Vol.11, p.77-86.
53- Bryden, I.G., Grinsted, T. and Melville, G.T., (2004), Assessing the potential of a simple tidal channel to deliver useful energy. Applied Ocean Research, Vol. 26(5), p.198-204.
54- Bryden, I.G. and Couch, S.J., (2006), ME1—marine energy extraction: tidal resource analysis. Renewable Energy, Vol.31(2), p.133-139.
56- JKP Application Development Services, (2016), Microsoft Office Excel, 64-bit, Version 2016, Weert, The Netherlands.