Your search found 2 records
1 Tiwari, K. N.; Reddy, K. Y.. 1997. Economic analysis of trickle irrigation system considering planting geometry. Agricultural Water Management, 34(2):195-206.
(Location: IWMI-HQ Call no: PER Record No: H021481)
2 de Jong, I. H.; Arif, S. S.; Gollapalli, P. K. R.; Neelam, P.; Nofal, E. R.; Reddy, K. Y.; Rottcher, K.; Zohrabi, N. 2021. Improving agricultural water productivity with a focus on rural transformation. Irrigation and Drainage, 70(3):458-469. (Special issue: Development for Water, Food and Nutrition Security in a Competitive Environment. Selected Papers of the 3rd World Irrigation Forum, Bali, Indonesia) [doi: https://doi.org/10.1002/ird.2451]
Agricultural water use ; Water productivity ; Rural development ; Transformation ; Water management ; Water conservation ; Water use efficiency ; Irrigation efficiency ; Water security ; Institutions ; Policies
(Location: IWMI HQ Call no: e-copy only Record No: H050480)
(5.51 MB)
As a result of population growth, economic development and climate change, feeding the world and providing water security will require important changes in the technologies, institutions, policies and incentives that drive present-day water management, as captured in Goal 6.4 of the Millennium Development Goals. Irrigation is the largest and most inefficient water user, and there is an expectation that even small improvements in agricultural water productivity will improve water security.
This paper argues that improvements in irrigation water productivity involves a complex and comprehensive rural transformation that goes beyond mere promotion of water saving technologies. Many of the measures to improve water productivity require significant changes in the production systems of farmers and in the support provided to them.
Looking forward, water use and competition over water are expected to further increase. By 2025, about 1.8 billion people will be living in regions or countries with absolute water scarcity. Demand for water will rise exponentially, while supply becomes more erratic and uncertain, prompting the need for significant shifts of inter-sectoral water allocation to support continued economic growth. Advances in the use of remote sensing technologies will make it increasingly possible to cost-effectively and accurately estimate crop evapotranspiration from farmers’ fields.
This paper argues that improvements in irrigation water productivity involves a complex and comprehensive rural transformation that goes beyond mere promotion of water saving technologies. Many of the measures to improve water productivity require significant changes in the production systems of farmers and in the support provided to them.
Looking forward, water use and competition over water are expected to further increase. By 2025, about 1.8 billion people will be living in regions or countries with absolute water scarcity. Demand for water will rise exponentially, while supply becomes more erratic and uncertain, prompting the need for significant shifts of inter-sectoral water allocation to support continued economic growth. Advances in the use of remote sensing technologies will make it increasingly possible to cost-effectively and accurately estimate crop evapotranspiration from farmers’ fields.
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