Multi-purpose system of dry-land watercourses for optimal protection and exploitation of natural resources

Authors
1 Head Department of River Engineering and Coastal Protection, Soil Conservation and Watershed Management Research Institute
2 Assistant Professor, Soil Conservation and Watershed Management Research Department, Markazi Agricultural and Natural Resources Research and Education Center, AREEO, Arak, Iran.
10.22034/wmji.2024.2031681.1073
Abstract
This article presents the experimented model based on the approaches of natural resource protection and business development in response to flood risks and based on the ecological capacity of the watershed. The multi-purpose system for the protection and optimal exploitation of dry river natural resources, and in other words, the organization of dry rivers, oversees the critical points of the waterway network (slope less than 15%) and has features such as suitable soil cover on the banks, no private property, destruction of land and agricultural infrastructure due to Floods and unemployment, the existence of residential areas in the foothills of the dry river, the existence of watershed studies, especially social and economic and hydrological data, the existence of a new watershed mechanical structure or in the implementation plan, and finally, the existence of public demand are important. The output of the dry-land watercourse management system is annual flood control, sustainable exploitation of the mechanical structure of the watershed, the development of biomechanical and biological operations, the modification of the cultivation pattern of the region, the cultivation of Indigenous trees and medicinal plants in the territory of the system, water reservoirs and the site selection of irrigation canals regards to the location of agricultural lands. The dry-land watercourse of the Kolahjoob in the Markazi province included an economic-social plan, the establishment of a rural cooperative, and the participation of people in the cultivation model and business plan. All organizing plans have economic estimates and return on investment as well. It is worth mentioning that the plan to develop a dry-land stream of Kolahjoob as a model-technological multi-purpose project of the Agricultural Research, Education and Extension Organization (AREEO) and Vice President Scientific Technology and Knowledge-Based Economy.
Keywords

  1. Davudirad, A.A., M., Gharibreza, M., and Ebrahimi, N. 2018. A Management System of Dry-land Watercourses for Strengthening Sustainable Rainwater harvesting, in 7th National Conference on Rainwater Harvesting Systems, Soil Conservation and Watershed Management Research Institute (In Persian).
  2. Hooshmandan, Z., Shams, A., Yaghoubi, H., Saba, J., and Asakere, H. 2020. Investigating Factors Affecting Adaptation Behaviors of Farmers with Climate Change in Zanjan Province. Agricultural Science and Sustainable Production. 30(3): 231-251 (In Persian).
  3. Hosseini, M., Lotfollahzadeh, D., Habibi, A., and Goodarzi, M.2017. Potential of Water Supply Sources in the Fields of Agriculture, Industry, Drinking and Natural Resources, in 6th Conference on Rainwater Collection Systems , Association of Rainwater Collection Systems, Khomeinishahr, 9 pp., (In Persian).
  4. Telvari, A. 1994. Fundamental to River Engineering and Management, Tehran: Soil Conservation and Watershed Management Research Institute. 490 pp. (In Persian).
  5. Javaheri, N. 2001. Optimizing Mechanical Structures Along the Golabdareh and Darband Streams, 1st National Conference on Erosion and Land Reclamation Control Structures, Soil Conservation and Watershed Management Research Institute, Khoramabad: 209-219 (In Persian).
  6. Ebrahimi, N., Davodirad, A. 2016. Presenting a typical river training plan for ephemeral streams, with the flood controlling purpose - A Case study in Ahoodarreh, Khomein, Iranian Jornal of Watershed Management Science & Engineering, 9(31): 1-10 (In Persian).
  7. Sadeghi, S.H., Davudirad, A., and Saadodin, A. 2014. Introduction and Application of Adaptive Management Concept and Zero Balance Approach in Reducing Land Degradation. Extension and Development of Watershed Management, 2(7): p. 37-42 (In Persian).
  8. Munro, N.T., Fischer, J., wood, J., and Lindenmayer, D. 2012. Assessing ecosystem function of restoration plantings in south-eastern Australia. Forest Ecology and Management, 282: 36-45.
  9. Wilson, N.R., and L.M. Norman, L.M. 2023. Five Year Analyses of Vegetation Response to Restoration using Rock Detention Structures in Southeastern Arizona, United States. Environmental Management, 71(5): 921-939.
  10. Norman, L.M., Sankey, J., Dean, D., Caster, J., Dejong, S., and Pelletier, J. 2017. Quantifying geomorphic change at ephemeral stream restoration sites using a coupled-model approach. Geomorphology, 283: 1-16.
  11. Norman, L.M. 2020. Ecosystem Services of Riparian Restoration: A Review of Rock Detention Structures in the Madrean Archipelago Ecoregion. Air, Soil and Water Research, 13: 1-13.
  12. Gooden, J. and Pritzlaff, R. 2021. Dryland Watershed Restoration With Rock Detention Structures: A Nature-based Solution to Mitigate Drought, Erosion, Flooding, and Atmospheric Carbon. Frontiers in Environmental Science, 9: 679189.
  13. Bradley, P. and Yee, S. 2015. The DPSIR framework to develop a conceptual model: technical support document. US Environmental Protection Agency, Office of Research and Development, National Health and Environmental Effects Research Laboratory, Atlantic Ecology Division.