Abstract
The formulation and application of two optimization models is presented in this study. The models were used to maximize the net farm revenue of an irrigated area located in northwest India by optimally allocating the available water and land resources. In order to moderate the rising water table issues, a ground water component was introduced in the model, while still ensuring optimal resources allocation. Results of the model indicates a reduction in barley, gram, mustard, and rice production area while at the same time an increase in sugarcane, millets, wheat, and cotton cultivation areas under optimal conditions. The ground water exploitation has increased in the model allocation, which consecutively moderated the rising water table problems. The model allocations has resulted in more than 31 % increase in net farm revenue. The proposed models can be employed as a dependable tool for making the decisions at local and regional levels and are capable of solving the rising water table issues of irrigated areas. The formulations proposed in this study are simple and can be employed anywhere for capitalizing on the farm revenue by moderating the water resources problems. The model constraints, though, be different considering the quality and quantity aspects of different water sources.
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Acknowledgments
The author expresses sincere thanks to the Department of Economic and Statistical Analysis, Haryana; Groundwater Cell, Department of Agriculture, Irrigation Department Rohtak; and India Meteorological Department for providing required data for this study. Farmers of the study area are appreciated for sharing their practical experiences and difficulties in adopting different on-farm strategies. The author also extends great gratitude to the editors and anonymous referees of the journal for their attentive review and vital comments which have led to considerable improvement to the early versions of the manuscript.
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Singh, A. Optimal Allocation of Resources for Increasing Farm Revenue under Hydrological Uncertainty. Water Resour Manage 30, 2569–2580 (2016). https://doi.org/10.1007/s11269-016-1306-x
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DOI: https://doi.org/10.1007/s11269-016-1306-x