A Hybrid Fuzzy-Based Multi-Objective PSO Algorithm for Conjunctive Water Use and Optimal Multi-Crop Pattern Planning

• Published in: Water resources management Vol. 31; no. 4; pp. 1139 - 1155
• Main Authors: Rezaei, Farshad, Safavi, Hamid R., Zekri, Maryam
• Format: Journal Article
• Language: English
• Published: Dordrecht Springer Netherlands 01.03.2017; Springer Nature B.V
• Subjects: Agriculture; Algorithms; Allium cepa; Atmospheric Sciences; Cereal crops; Civil Engineering; Climate change; Crops; Cultivation; cultivation area; Dominance; Earth and Environmental Science; Earth Sciences; Environment; Geotechnical Engineering & Applied Earth Sciences; Groundwater; Groundwater irrigation; Hydrogeology; Hydrology/Water Resources; Irrigation; Irrigation efficiency; Mathematical models; Multiple objective; Multiple objective analysis; Neural networks; onions; Optimization; Optimization algorithms; Planning; Precipitation; rice; Simulation; Studies; Supply & demand; Surface water; system optimization; Triticum aestivum; Water consumption; Water resources; Water supply; Water use; wheat; Fuzzy inference system; Conjunctive use; Multi-objective particle swarm optimization (MOPSO); Multi-crop pattern planning; Artificial neural networks
• ISSN: 0920-4741; 1573-1650
• DOI: 10.1007/s11269-016-1567-4

This paper focuses on extracting an optimal multi-crop pattern plan through multi-objective conjunctive surface-ground water use management. Minimizing shortages in meeting irrigation demands, maximizing groundwater resources sustainability and maximizing agricultural net benefits are the three main goals of the multi-objective optimization problem solved in this paper. A new robust fuzzy-based multi-objective PSO algorithm called f-MOPSO is adopted and modified to solve a three-objective real-world conjunctive use management problem presented in this paper after testing on standard test problems revealed f-MOPSO superiority as compared to the well-known multi-swarm vector evaluated PSO (VEPSO) algorithm. The f-MOPSO benefits from a well-organized Sugeno fuzzy inference system (SFIS) designed for handling multi-objective nature of the optimization problems. The unique performance of f-MOPSO is not only presenting the better final solutions, but also aggregating the capabilities for measurement of dominance and diversity of the solutions in one stage by one index named comprehensive dominance index, in contrast to a wide range of multi-objective algorithms that evaluate dominance and diversity in two separate stages resulting in excessive computational burden. The optimization model is carried out on a 10-year long-term simulation period, resulting in increasing irrigation efficiency i.e. decreasing water losses, decreasing water consumption per unit cultivated area and increasing water productivity compared to those similar criteria observed in actual operation in the study area. The wheat and rice crops were identified as the dominant crops, while the optimization model was the least interested to onion cultivation, assigning the least average cultivation area to this crop over the whole planning period.