Effect of consumption and efficiency of irrigation networks on hydropower generation in Karun basin
محورهای موضوعی : water resource managementحمیدرضا ماجدی 1 , حسین فتحیان 2 , علیرضا نیکبخت شهبازی 3 , نرگس ظهرابی 4
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کلید واژه: Efficiency, شبکههای آبیاری, consumption, راندمان, irrigation networks, hydropower, مصارف, انرژی برقابی,
چکیده مقاله :
In this research, integrated modeling of Great Karun basin was carried out under multipurpose scenarios using six reservoir dams with a capacity of 10500 MW (Megawatt) to reduce the greenhouse gas productions. The simulation and development of the integrated WEAP model within a fifty-year period along with the development of the MODFLOW model in alluvial deposits that interact with the river allowed for the analysis of the integrated water resources management system of the Great Karun basin. Several scenarios were implemented following the calibration and validation of the linked integrated model. The components covered by these scenarios included the satisfaction of the in-basin and off-basin demands, the effect of the integrated consumption of water resources, and the effect of increased efficiency of irrigation networks with maximum clean hydroelectricity production and minimum aquifer level decline under drought-induced water shortage conditions. The second scenario, which generates 15282 GWh (Gigawatt-Hour) of power, not only optimally needs the future and environmental demands as the best operating scenario but also minimizes the emission of the greenhouse gases in the basin
در این پژوهش مدلسازی تلفیقی حوزه کارون بزرگ با ظرفیت نیروگاهی ۱۰۵۰۰ مگاوات با سناریوهای چندمنظوره در راستای شبیهسازی تخصیص منابع و هیدروانرژی و کاهش تولید گاز گلخانهای مورد توجه قرار گرفت. شبیهسازی و توسعه مدل یکپارچه WEAP در یک بازه زمانه پنجاه ساله در کنار توسعه مدل MODFLOW در پهنههای آبرفتی که با رودخانه دارای اندرکنش میباشند امکان بررسی سیستم یکپارچه منابع آب حوضه را میسر نمود. پس از واسنجی و صحتسنجی مدل تلفیقی لینک شده ، چندین سناریو اجرا گردید. مولفههای تحت پوشش این سناریوها شامل تامین مصارف داخلی و خارجی حوضه، اثر استفاده تلفیقی منابع آب، اثر افزایش راندمان شبکههای آبیاری در شرایط حداکثر کردن تولید انرژی پاک برقابی و حداقل کردن افت آبخوان در شرایط کم آبی ناشی از خشکسالی بود. در این راستا سناریو دوم با تولید میزان 15282 گیگاوات ساعت انرژی ضمن تامین بهینه نیاز آینده و نیاز زیستمحیطی به عنوان سناریو برتر بهرهبرداری، حداقل انتشار گاز گلخانهای در حوضه را به دنبال خواهد داشت.
Amponsah, N.Y., Troldborg, M., Kington, B., Aalders, I. and Hough, R.L. (2014). Greenhouse gas emissions from renewable energy sources: A review of lifecycle considerations. Renewable and Sustainable Energy Reviews, 39, pp: 461-475.
Anderson, M. P. (1984). Groundwater Contamination: Movement of Contaminants in Groundwater, Groundwater Transport Advection and Dispersion. National Academy Press. Washington DC.: pp: 37-45
Anugrah, P., Setiawan, A.A., Budiarto, R. and Sihana, S. (2015). Evaluating micro hydro power generation system under climate change scenario in Bayang Catchment, Kabupaten Pesisir Selatan, West Sumatra. Energy Procedia, 65, pp: 257-263.
Berg, B. (2011). Comparison of Lifecycle Greenhouse Gas Emissions of Various Electricity Generation Sources. Environmental Science.
Bharati, L., Rodgers, C., Erdenberger, T., Plotnikova, M., Shumilov, S., Vlek, P. and Martin, N. (2008). Integration of economic and hydrologic models: exploring conjunctive irrigation water use strategies in the Volta Basin. agricultural water management, 95(8), pp: 925-936.
Cai, X., McKinney, D.C. and Rosegrant, M.W. (2003). Sustainability analysis for irrigation water management in the Aral Sea region. Agricultural systems, 76(3), pp: 1043-1066.
Copenhagen Accord. (2009). Report of the Conference of the Parties on its fifteenth session, held in Copenhagen from 7 to 19 December 2009. United Nations Framework Convention on Climate Change.http://unfccc.int/resource/docs/2009/cop15/eng/11a01.pdf
Dalir, F., Shafiepour Motlagh, M. and Ashrafi, K. (2017). A well to wire LCA model development and sensitivity analysis for carbon footprint of combined cycle power plants in Iranian electricity network. International Journal of Green Energy, 14(5), pp: 499-508.
Droogers, P., Butterfield, R. and Dyszynski, J. (2009). Climate change and hydropower, impact and adaptation costs: case study Kenya. FutureWater Report, 85.
Haddad, M., Jayousi, A. and Hantash, S.A. (2007). March. Applicability of WEAP as water management decision support system tool on localized area of watershed scales: Tulkarem district in Palestine as case study. In Proceedings of the Eleventh International Water Technology Conference, pp: 811-825.
Hadded, R., Nouiri, I., Alshihabi, O., Maßmann, J., Huber, M., Laghouane, A., Yahiaoui, H. and Tarhouni, J. (2013). A decision support system to manage the groundwater of the zeuss koutine aquifer using the WEAP-MODFLOW framework. Water Resources Management, 27(7), pp: 1981-2000.
Hondo, H. (2005). Life cycle GHG emission analysis of power generation systems: Japanese case. Energy, 30(11-12), pp: 2042-2056.
Hutchinson, C.F., Varady, R.G. and Drake, S. (2010). Old and new: changing paradigms in arid lands water management. In Water and sustainability in arid regions (pp. 311-332). Springer, Dordrecht.
Jones, B.A., Ripberger, J., Jenkins-Smith, H. and Silva, C. (2017). Estimating willingness to pay for greenhouse gas emission reductions provided by hydropower using the contingent valuation method. Energy Policy, 111, pp:362-370.
Madani, K. and Mariño, M.A. (2009). System dynamics analysis for managing Iran’s Zayandeh-Rud river basin. Water resources management, 23(11), pp: 2163-2187.
Miller, S. and Labadie, J., (2003). A decision support system for optimal planning of conjunctive use progress. J. of American Water Resources Association, 39(3), pp: 517-528.
Mirchi, A., Watkins Jr, D. and Madani, K. (2010). Modeling for watershed planning, management, and decision making. Watersheds: Management, restoration and environmental impact.
Mugatsia, E.A. (2010). Simulation and scenario analysis of water resources management in Perkerra catchment using WEAP model. M asters Thesis, Department of Civil and Structural Engineering, School of Engineering, Moi University, Kenya,(December).
Poblete, D., Vicuña, S., Meza, F. and Bustos, E. (2012). Water resources modeling under Climate Change scenarios of Maule River Basin (Chile) with two main water intensive and competing sectors: Agriculture and Hydropower Generation. In IWA World Congress on Water, Climate and Energy.
Raadal, H.L., Gagnon, L., Modahl, I.S. and Hanssen, O.J. (2011). Life cycle greenhouse gas (GHG) emissions from the generation of wind and hydro power. Renewable and Sustainable Energy Reviews, 15(7), pp: 3417-3422.
The Hydropower Status Report. (2016). an insight into recent hydropower development and sector trends around the world.https://www.hydropower.org/download/file/nojs/7461
Young, G., Shah, B. and Kimaite, F. (2008). UN Water Report. Status report on integrated water resources management and water efficiency plans.
Weisser, D. (2007). A guide to life-cycle greenhouse gas (GHG) emissions from electric supply technologies. Energy, 32(9), pp:1543-1559.
