Abstract
The use of modern irrigation technologies has been proposed as one of several possible solutions to water scarcity, limited drainage, and associated problems in irrigated agriculture. These technologies should be assessed within economic decisionmaking frameworks which could be applied to guide farmers and water districts in irrigation and technology choices, to assist public policymakers in designing policy instruments to increase conservation and reduce drainage and runoff, and to aid developers of irrigation technologies in the design and marketing of new products. An economic model is developed in this chapter, which includes many of the aspects previously developed, and also takes into consideration new aspects such as weather conditions and the dual effects of soil and water quality. The results provide several general insights regarding the impacts of different irrigation technologies and input qualities on productivity and profitability. The results also illustrate differences in outcomes associated with crop selections as affected by weather, input quality, and technology selection.
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References
Boggess, W. G. and Amerling, C. B., 1983. A Bioeconomic Simulation Analysis of Irrigation Investments, Southern Journal of Agricultural Economics; 15(2), pp. 85–92.
Buchanan, J. M. and Tullock, G., 1975. Polluters’ Profits and Political Response: Direct Controls Versus Taxes, American Economic Review, 65(1), pp. 139–147.
California Tomato Growers Association, Inc., 1986. Negotiated Prices.
Caswell, M. and Zilberman, D., 1985. The Choices of Irrigation Technologies in California, American Journal of Agricultural Economics, 67(2), pp. 224–234.
Caswell, M. and Zilberman, D., 1986. The Effects of Well Depth and Land Quality on the Choice of Irrigation Technology, American Journal of Agricultural Economics, 68, pp. 798–811.
Dinar, A.; Knapp, K. C.; and Letey, J., 1989. Irrigation Water Pricing to Reduce and Finance Subsurface Drainage Disposal, Agricultural Water Management, 16, pp. 155–171.
Dinar, A. and Campbell, M. B., 1990. Adoption of Improved Irrigation and Drainage Reduction Technologies in the West Side of the San Joaquin Valley, Part I: Literature Review, Survey Methods and Descriptive Statistics. San Joaquin Valley Drainage Program.
Dinar, A. and Zilberman, D., 1990. The Economics of Irrigation and Drainage (Reduction) Technology Choice: The Role of Input Quality and Environmental Conditions. San Joaquin Valley Drainage Program.
Doorenbos, J. and Pruitt, W., 1984. Crop Water Requirements. Irrigation and Drainage Paper 24, Food and Agriculture Organization of the United Nations.
Feinerman, E.; Letey, J.; and Vaux, H. J. Jr., 1983. The Economics of Irrigation With Nonuniform Infiltration, Water Resources Research, 19(6), pp. 1410–1414.
Hexem, R. and Heady, E. O., 1978. Water Production Functions and Irrigated Agriculture. Iowa State University Press, Ames.
Hornbaker, R. H. and Mapp, H. P., 1988. A Dynamic Analysis of Water Savings from Advanced Irrigation Technology, Western Journal of Agricultural Economics, 13(2), pp. 307–315.
Letey, J. and Dinar, A., 1986. Simulated Crop-Water Production Functions for Several Crops When Irrigated with Saline Waters, Hilgardia, 54(1), pp. 1–32.
Letey J.; Dinar, A.; and Knapp, K. C., 1985. Crop-Water Production Function Model for Saline Irrigation Waters, Soil Science Society of America Journal, 49, pp. 1005–09
Letey, J.; Dinar, A.; Woodring, C; and Oster, J., 1990a. An Economic Analysis of Irrigation Systems, Irrigation Science, 11, pp. 37–43
Letey, J.; Knapp, K.L; and Solomon, K., 1990b. Crop-Water Production Functions. In: Tanji, K. K.(Ed), Agricultural Salinity Assessment and Management. ASCE, New York, NY. Forthcoming.
Messer, J., 1982. International Development and Trends in Water Reuse. In: Middlebrooks, E. J. (Ed.), Water Reuse, Ann Arbor Science Publishers, Ann Harbor, MI.
Musser, V. N. and Tew, B. V., 1984. Use of Biophysical Simulators in Production Economics, Southern Journal of Agricultural Economics, 16(1), pp. 74–86.
University of California Committee of Consultants, 1988. Drainage Water Reduction, Associated Costs of Drainage Water Reduction, No. 2. University of California Salinity/Drainage Taskforce and Water Resources Center.
University of California, 1985. Various Crop Budgets for Fresno County. UC Cooperative Extension, Davis, CA
U.S. Department of Commerce, N.O.A.A. Climatological Data, California, Various Years.
U.S. Department of Agriculture, 1989. Cotton and Wool, Situation and Outlook Yearbook, Economic Research Service, CWS-57, p. 47.
Vaux, H. J. Jr. and Pruitt, W. O., 1983. Crop-Water Production Functions, Advances in Irrigation, 2, pp. 61–97.
Westland Water District, 1984. Water Conservation and Management Handbook.
Yaron, D.; Bresler, E.; Bielorai, H.; and Harpenist, B., 1980. A Model for Optimum Irrigation Scheduling with Saline Water, Water Resources Research, 16(2), pp. 251-67.
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Dinar, A., Zilberman, D. (1991). Effects of Input Quality and Environmental Conditions on Selection of Irrigation Technologies. In: Dinar, A., Zilberman, D. (eds) The Economics and Management of Water and Drainage in Agriculture. Springer, Boston, MA. https://doi.org/10.1007/978-1-4615-4028-1_12
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DOI: https://doi.org/10.1007/978-1-4615-4028-1_12
Publisher Name: Springer, Boston, MA
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