Evaluation of Factors Affecting the Development of Pressurized Irrigation Systems in the 46 Thousand Hectare Plan of Sistan Region

Authors
1 Master of Agricultural Economics, University of Sistan and Baluchestan Zahedan, Iran
2 Associate Professor of Agriculture Economics, University of Sistan and Baluchestan Zahedan, Iran
10.22034/wmji.2024.2032518.1076
Abstract
Water shortage is one of the main problems of most countries in the world, and the only way out of this crisis is optimal allocation and increasing water productivity in different sectors, especially the agricultural sector. In this research, the factors affecting the development of pressurized irrigation systems in the 46,000-hectare project of Sistan region were evaluated with the approach of multi-indicator criteria. To research this goal, the SAW model under fuzzy logic was used, and for this purpose, 5 main criteria (including economic, technical, promotion, social, environmental and individual criteria) and 31 sub-criteria were selected for 5 options in Sistan region. Data were analyzed using MCDM solver software. The results related to the definitive score of the options show that the economic option with a value of 5.175 is in the first rank, the technical option is in the second rank with a value of 4.711, the promotion criterion is in the third rank with a value of 4.583, and the social and environmental criterion with a value of 4.581 is located in fourth rank and the last rank belongs to individual characteristics with a value of 4.356. Considering the results obtained and the development of pressurized irrigation systems in the region, it is suggested to strengthen and target the granting of government facilities for pressurized irrigation systems. Also, technical indicators should be considered by planners in the region due to their high weight in the results.
Keywords

  1. Ali, M.H. 2011. Practices of Irrigation and On-farm Water Management. 1st Edition. Springer Pub. 2:571.
  2. Asgharpour, M.J. 2013. Multi-criteria decision making. 11th edition Tehran, Tehran University Press: 400 (In Persian).
  3. Aswell, M., and Zilberman, D. 1985. The choices of irrigation technologies in California. American Journal of Agricultural Economics. 67(2), 224-234.
  4. Darzi-Naftchali, A., Bagherian-Jelodar, M., Mashhadi-Kholerdi,, and Abdi-Moftikolaei, M. 2020. Assessing socio-environmental sustainability at the level of irrigation and drainage network. Science of the Total Environment. 731: 138927.
  5. Falkenmark, M. 2013. Growing water scarcity in agriculture: future challenge to global water security. Philosophical Transactions of the Royal Society A: Mathematical. Physical and Engineering Sciences, 371(2002), 20120410.
  6. Ghafari Moghadam, Z. 2018. Economic management of water resources in the agricultural sector of the Hirmand watershed with the integrated approach of game theory and water market. PhD thesis, University of Sistan and Baluchistan, Department of Agricultural Economics (In Persian).
  7. Ghafari Moghadam, Z., Moradi, A., Hashemi Tabar, M., and Sardar Shahraki, A. 2022. Optimal allocation of water resources in the agricultural sector using the Stackelberg-Nash-Cournot model and emphasis on the water market (case study: water transfer project with pipes in Sistan region). Ecohydrology. 9(1), 273-289 (In Persian).
  8. Heyd, H., and Neef, A. 2004. Participation of local people in water management: Evidence from the MaeSa Watershed, Northern Thailand. International food policy research Institute. Washington, D.C. USA.
  9. Karamatzadeh, A., Chizari, A., and Mirzai, A. 2015. Determining the economic value of irrigation water through: optimal cultivation pattern for integrated farm and horticulture, a case study of Bazo Shirvan Dam. Agricultural Economics and Development. 14(54), 35-60 (In Persian).
  10. Khoshab, A., and Namazi, A. 2015. Examining the reasons for farmers not accepting the public participation plan. Papers of the first national conference on management of irrigation and drainage networks. Ahvaz 12-14 (In Persian).
  11. Lichtenberg, E. 1998. Land quality, irrigation development, and cropping patterns in the northern high plains. American Journal of Agricultural Economics. 71(1), 187-194.
  12. Malczewski, J. 1997. Propagation of errors in multicriteria location analysis. Springer. Berlin Heidelberg New York: 154–155
  13. Maleki, S., and Mandalujoybari, M. 2014. Measuring and rating the quality of life in Mazandaran province using AHP and SAW techniques. Geography and development of urban space. 3(1-4), 133-147 (In Persian).
  14. Mahboobi, M., Nakhai, H., Razvanfar, A., Movahed, A., and Mohammadi, H. 2012. Identifying the educational needs of users of classic pressure irrigation systems in Golestan province, Journal of Water Research in Agriculture. 27(2), 171-180 (In Persian).
  15. Mokhtari Hasri, A., Rezaei, R., and Shabanali Fami H. 2018. Analysis of influencing factors on farmers' behavior in using low pressure irrigation system in East Azarbaijan province. Extension Sciences and Agricultural Education of Iran. 16(2), 125-143 (In Persian).
  16. Momvandi, A., Omidi Najafabadi, M., Hosseini J.F., and Lashgarara, F. 2018. The identification of factors affecting the use of pressurized irrigation systems by farmers in Iran. Water. 10(11), 15-32.
  17. Naderianfar, M., Ghanbari, S., and Bazarafshan, J. 1401. The impact of the 46,000-hectare Sistan plain irrigation project on the social sustainability of villages (case study: Hamon rural areas). Local development (rural-urban). 13(2), 455-479 (In Persian).
  18. Nowrozi, A., and Chizari, M. 2014. Factors affecting the adoption of rain irrigation in Nahavand city. Journal of Agricultural Economics and Development. 14(54), 61-84 (In Persian).
  19. Piri, J., Ansari, H., and Shirzadi Leskokalaye, S. 2013. Economic evaluation and comparison of gravity and pressure systems of water distribution network in Sistan region. Water research in agriculture. 28(28-4), 713-724 (In Persian).
  20. Raja, A., Mirzaei, F., Pourgholam Amiji, M., Houshmand, M., Saleh, M., and Balavi, F. 2018. Assessing the development potential of pressurized irrigation in Qazvin Plain with the method, hierarchical analysis and ant colony optimization algorithm. Water management in agriculture. 7(2), 15-30 (In Persian).
  21. Rosa, L., Chiarelli, D.D., Rulli, M.C., Dell’Angelo, J., and D’Odorico, P. 2020. Global agricultural economic water scarcity. Science Advances. 6(18), 6031.
  22. Salehi, R., Attarroshan, S., and Porrostami, R. 2013. Evaluation of the use of drip irrigation system in the hand-planted seed forests of northern Karaj. Journal of Renewable Natural Resources Research. 3(1), 68-77 (In Persian).
  23. Samian, M., Mahdei, K.N., Saadi, H., and Movahedi, R. 2015. Identifying factors affecting optimal management of agricultural water. Journal of the Saudi Society of Agricultural Sciences. 14(1), 11-18.
  24. Türkten, H., Yıldırım, Ç., and Boz, İ. 2023. Factors influencing the adoption of pressurized irrigation systems in hazelnut production and its effect on the water footprint in the Çarşamba district of Samsun. Erwerbs-Obstbau. 65(4), 775-783.
  25. Zarei, Z., Karami, E., and Keshavarz, M. 2020. Co-production of knowledge and adaptation to water scarcity in developing countries. Journal of environmental management. 262: 110283.
  26. Zarifian, Sh., Rostami, J., and Pishbahar A. 2019. Factors affecting the use of modern irrigation systems in the development of sustainable agriculture (case study: Bostan Abad city, East Azarbaijan province). Agricultural knowledge and sustainable production. 30(3), 217-229 (In Persian).