Document Type : Research Paper

Authors

Abstract

Energy consumption and energy cost in irrigation systems have been important issues due to energy charge increase in recent years. In this study, theoretical basis of pressurized irrigation systems management and technical factors that affect energy costs were studied and the optimum system design criteria for energy consumption were identified. In addition, energy consumptions of 45 pressurized irrigation systems in Qazvin province were evaluated. These irrigation systems types were classic sprinkler, center pivot, linear move, and trickle. The energy requirements of these systems for supplying a unit volume of water were obtained as 0.290, 0.250 and 0.202 KWh/m3, respectively. The results show the importance of irrigation systems selection in energy costs saving in national and regional plans. At last, energy consumption and related costs for various pressurized irrigation systems were studied for the main crops in Qazvin irrigation network. These results can be useful in deciding cropping pattern and economic studies.

Keywords

  1. اسکونژاد، م. 1389. اقتصاد مهندسی یا ارزیابی اقتصادی پروژه­های صنعتی. مرکز نشر دانشگاه صنعتی امیرکبیر.
  2. معاونت آب و خاک وزارت جهاد کشاورزی، 1393. گزارش وضع موجود طرح های معاونت آب و خاک و صنایع در تدوین برنامه ششم توسعه.
  3. Carrillo Cobo, M. T., Rodriguez Diaz, J. A.,Lopez Luque, R.,Montesinos, P.and CamachoPoyato,  E. 2009. Exploring energy saving scenarios for on-demand pressurised irrigation networks. Biosystems Eng. 104(4): 552–561.
  4. deMonsabert, S., andLiner, B. L. 1998. Integrated energy and water conservation modeling. Journal of energy engineering, 124(1): 1-19.
  5. Ellis, E.M. 1998. Agricultural groundwater conservation program in the phoenix active management area. M.S. Thesis. University of Arizona. Tucson. AZ.
  6. FAO. 1992. Small-scale pumped irrigation - energy and cost. Water Resources. Development and Management Service.
  7. FAO. 2002. Andreas P. Savva and Karen Frenken, Irrigation Manual Module 11. Financial and Economic Appraisal of Irrigation Projects.
  8. Moradi-Jalal, M., Rodin, S. I., andMarino, M. A. 2004. Use of genetic algorithm in optimization of irrigation pumping stations. Journal of irrigation and drainage engineering, 130(5): 357-365.
  9. Ortiz Romero, J. N., Montero Martinez, J., Martinez, R. S., and  Tarjuelo Martin-Benito, J. M. 2006. Set sprinkler irrigation and its cost. Journal of irrigation and drainage engineering, 132(5):445-452.
  10. Prats, A. G., Pico, S. G., Alzamora, F. M., andBello, M. A. J. 2011. Random Scenarios Generation with Minimum Energy Consumption Model for Sectoring Optimization in Pressurized Irrigation Networks Using a Simulated Annealing Approach. Journal of Irrigation and Drainage Engineering, 138(7): 613-624.
  11. Reinders, F. B., Stoep, I., andBackeberg, G. R. 2013. Improved efficiency of irrigation water use: A South African framework. Irrigation and Drainage
  12. Rodriguez Diaz, J. A.,LópezLuque., R.,Carrillo Cobo, M. T., Montesinos. P., and Camacho Poyato, E. 2009. Exploring energy saving scenarios for on-demand pressurized irrigation networks. Biosystems Eng.104 (4): 552–561.
  13. Scott, C. A., andShah, T. 2004. Groundwater overdraft reduction through agricultural energy policy: insights from India and Mexico. International Journal of Water Resources Development, 20(2): 149-164.
  14. USDA. 1997. National Engineering Handbook. Part 652 Irrigation Guide Irrigation Guide.