Model describes sustainable long-term recycling of saline agricultural drainage water

Due to high water tables, the western San Joaquin Valley is prone to high salinity in drainage water, which requires appropriate management and disposal in order to sustain agricultural productivity. We developed a model that describes a farming system for irrigating a sal...

Full description

Bibliographic Details
Main Authors: David E Birkle, William A Jury, Iddo Kan
Format: Article
Language:English
Published: University of California Agriculture and Natural Resources 2003-01-01
Series:California Agriculture
Online Access:http://calag.ucanr.edu/archive/?article=ca.v057n01p24
id doaj-f60fd8a696184501afb299b5f4e93747
record_format Article
spelling doaj-f60fd8a696184501afb299b5f4e937472020-11-24T21:53:03ZengUniversity of California Agriculture and Natural ResourcesCalifornia Agriculture0008-08452160-80912003-01-01571242710.3733/ca.v057n01p2410.3733/cav057n01_8Model describes sustainable long-term recycling of saline agricultural drainage waterDavid E Birkle0William A Jury1Iddo KanD.E. Birkle is Staff Research Associate, UC Center for Water Resources, Riverside.W.A. Jury is Distinguished Professors of Soil PhysicsDue to high water tables, the western San Joaquin Valley is prone to high salinity in drainage water, which requires appropriate management and disposal in order to sustain agricultural productivity. We developed a model that describes a farming system for irrigating a salt-tolerant crop with high-salinity drainage water from a salt-sensitive crop. The farming system would include the collection of subsurface drainage water from the salt-sensitive crop, which would then be combined with good, low-salinity water for an average electrical conductivity (EC) of 5 deciSiemens/meter (dS/m); irrigation of the salt-tolerant crop(s) (cotton, in this case) for several cycles; and final disposal of the drainage water in an evapor-ation pond. The main benefits of this system are that the proportion of the farm required for evaporation ponds decreases and fresh water is saved. According to our calculations, this farming system could be physically sustainable for centuries. However, the costs related to mitigating wildlife impacts caused by ecotoxic salts such as selenium in the evaporation ponds must be fully evaluated to determine the system's economic viability.http://calag.ucanr.edu/archive/?article=ca.v057n01p24
collection DOAJ
language English
format Article
sources DOAJ
author David E Birkle
William A Jury
Iddo Kan
spellingShingle David E Birkle
William A Jury
Iddo Kan
Model describes sustainable long-term recycling of saline agricultural drainage water
California Agriculture
author_facet David E Birkle
William A Jury
Iddo Kan
author_sort David E Birkle
title Model describes sustainable long-term recycling of saline agricultural drainage water
title_short Model describes sustainable long-term recycling of saline agricultural drainage water
title_full Model describes sustainable long-term recycling of saline agricultural drainage water
title_fullStr Model describes sustainable long-term recycling of saline agricultural drainage water
title_full_unstemmed Model describes sustainable long-term recycling of saline agricultural drainage water
title_sort model describes sustainable long-term recycling of saline agricultural drainage water
publisher University of California Agriculture and Natural Resources
series California Agriculture
issn 0008-0845
2160-8091
publishDate 2003-01-01
description Due to high water tables, the western San Joaquin Valley is prone to high salinity in drainage water, which requires appropriate management and disposal in order to sustain agricultural productivity. We developed a model that describes a farming system for irrigating a salt-tolerant crop with high-salinity drainage water from a salt-sensitive crop. The farming system would include the collection of subsurface drainage water from the salt-sensitive crop, which would then be combined with good, low-salinity water for an average electrical conductivity (EC) of 5 deciSiemens/meter (dS/m); irrigation of the salt-tolerant crop(s) (cotton, in this case) for several cycles; and final disposal of the drainage water in an evapor-ation pond. The main benefits of this system are that the proportion of the farm required for evaporation ponds decreases and fresh water is saved. According to our calculations, this farming system could be physically sustainable for centuries. However, the costs related to mitigating wildlife impacts caused by ecotoxic salts such as selenium in the evaporation ponds must be fully evaluated to determine the system's economic viability.
url http://calag.ucanr.edu/archive/?article=ca.v057n01p24
work_keys_str_mv AT davidebirkle modeldescribessustainablelongtermrecyclingofsalineagriculturaldrainagewater
AT williamajury modeldescribessustainablelongtermrecyclingofsalineagriculturaldrainagewater
AT iddokan modeldescribessustainablelongtermrecyclingofsalineagriculturaldrainagewater
_version_ 1725873125626740736