A sod-based cropping system for irrigation reductions
Cotton and peanut grown under irrigation make up over 769,000 ha in the Southeast USA. The consumptive use of water for irrigation has significantly impacted groundwater resources, spring flows and streamflows in many parts of this region, particularly during severe droughts. This situation is furth...
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Published in | Renewable agriculture and food systems Vol. 31; no. 6; pp. 485 - 494 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
Published |
Cambridge, UK
Cambridge University Press
01.12.2016
CAMBRIDGE UNIVERSITY PRESS |
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Abstract | Cotton and peanut grown under irrigation make up over 769,000 ha in the Southeast USA. The consumptive use of water for irrigation has significantly impacted groundwater resources, spring flows and streamflows in many parts of this region, particularly during severe droughts. This situation is further complicated with extreme weather events and climate variability. In this study, we compare yields and water use in a non-irrigated sod-based rotation system (SBR; bahiagrass–bahiagrass–peanut–cotton) to an irrigated conventional rotation system (ICR; peanut–cotton–cotton). Root mass of oat cover crop following peanut or cotton in a SBR and ICR system was also measured. A soil water assessment model (SWAT) was used to simulate irrigation water demands over a 34 yr period (1980–2013) under different soil types to quantify water saving potential of SBR. The average peanut yield in ICR from 2002 to 2013 was 4509 kg ha−1, while that in SBR was 4874 kg ha−1. Likewise the average cotton yield in ICR during the same period was 1237 kg ha−1, while that in SBR was 1339 kg ha−1. Oats had greater root mass in SBR than ICR. Simulation results indicate that crops in SBR consistently had substantially lower irrigation requirements (between 11 and 22 cm yr−1) than those in ICR in dry years. The water-saving potential of SBR varies positively with increasing sand content in soil. |
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AbstractList | Cotton and peanut grown under irrigation make up over 769,000 ha in the Southeast USA. The consumptive use of water for irrigation has significantly impacted groundwater resources, spring flows and streamflows in many parts of this region, particularly during severe droughts. This situation is further complicated with extreme weather events and climate variability. In this study, we compare yields and water use in a non-irrigated sod-based rotation system (SBR; bahiagrass–bahiagrass–peanut–cotton) to an irrigated conventional rotation system (ICR; peanut–cotton–cotton). Root mass of oat cover crop following peanut or cotton in a SBR and ICR system was also measured. A soil water assessment model (SWAT) was used to simulate irrigation water demands over a 34 yr period (1980–2013) under different soil types to quantify water saving potential of SBR. The average peanut yield in ICR from 2002 to 2013 was 4509 kg ha−1, while that in SBR was 4874 kg ha−1. Likewise the average cotton yield in ICR during the same period was 1237 kg ha−1, while that in SBR was 1339 kg ha−1. Oats had greater root mass in SBR than ICR. Simulation results indicate that crops in SBR consistently had substantially lower irrigation requirements (between 11 and 22 cm yr−1) than those in ICR in dry years. The water-saving potential of SBR varies positively with increasing sand content in soil. Cotton and peanut grown under irrigation make up over 769,000 ha in the Southeast USA. The consumptive use of water for irrigation has significantly impacted groundwater resources, spring flows and streamflows in many parts of this region, particularly during severe droughts. This situation is further complicated with extreme weather events and climate variability. In this study, we compare yields and water use in a non-irrigated sod-based rotation system (SBR; bahiagrass-bahiagrass-peanut-cotton) to an irrigated conventional rotation system (ICR; peanut-cotton-cotton). Root mass of oat cover crop following peanut or cotton in a SBR and ICR system was also measured. A soil water assessment model (SWAT) was used to simulate irrigation water demands over a 34 yr period (1980-2013) under different soil types to quantify water saving potential of SBR. The average peanut yield in ICR from 2002 to 2013 was 4509 kg ha super(-1), while that in SBR was 4874 kg ha super(-1). Likewise the average cotton yield in ICR during the same period was 1237 kg ha super(-1), while that in SBR was 1339 kg ha super(-1). Oats had greater root mass in SBR than ICR. Simulation results indicate that crops in SBR consistently had substantially lower irrigation requirements (between 11 and 22 cm yr super(-1)) than those in ICR in dry years. The water-saving potential of SBR varies positively with increasing sand content in soil. Abstract Cotton and peanut grown under irrigation make up over 769,000 ha in the Southeast USA. The consumptive use of water for irrigation has significantly impacted groundwater resources, spring flows and streamflows in many parts of this region, particularly during severe droughts. This situation is further complicated with extreme weather events and climate variability. In this study, we compare yields and water use in a non-irrigated sod-based rotation system (SBR; bahiagrass–bahiagrass–peanut–cotton) to an irrigated conventional rotation system (ICR; peanut–cotton–cotton). Root mass of oat cover crop following peanut or cotton in a SBR and ICR system was also measured. A soil water assessment model (SWAT) was used to simulate irrigation water demands over a 34 yr period (1980–2013) under different soil types to quantify water saving potential of SBR. The average peanut yield in ICR from 2002 to 2013 was 4509 kg ha −1 , while that in SBR was 4874 kg ha −1 . Likewise the average cotton yield in ICR during the same period was 1237 kg ha −1 , while that in SBR was 1339 kg ha −1 . Oats had greater root mass in SBR than ICR. Simulation results indicate that crops in SBR consistently had substantially lower irrigation requirements (between 11 and 22 cm yr −1 ) than those in ICR in dry years. The water-saving potential of SBR varies positively with increasing sand content in soil. Cotton and peanut grown under irrigation make up over 769,000 ha in the Southeast USA. The consumptive use of water for irrigation has significantly impacted groundwater resources, spring flows and streamflows in many parts of this region, particularly during severe droughts. This situation is further complicated with extreme weather events and climate variability. In this study, we compare yields and water use in a non-irrigated sod-based rotation system (SBR; bahiagrass-bahiagrass-peanut-cotton) to an irrigated conventional rotation system (ICR; peanut-cotton-cotton). Root mass of oat cover crop following peanut or cotton in a SBR and ICR system was also measured. A soil water assessment model (SWAT) was used to simulate irrigation water demands over a 34 yr period (1980-2013) under different soil types to quantify water saving potential of SBR. The average peanut yield in ICR from 2002 to 2013 was 4509 kg ha-1, while that in SBR was 4874 kg ha-1. Likewise the average cotton yield in ICR during the same period was 1237 kg ha-1, while that in SBR was 1339 kg ha-1. Oats had greater root mass in SBR than ICR. Simulation results indicate that crops in SBR consistently had substantially lower irrigation requirements (between 11 and 22 cm yr-1) than those in ICR in dry years. The water-saving potential of SBR varies positively with increasing sand content in soil. |
Author | Bartel, R.L. George, S. Dourte, Daniel Wright, D.L Marois, J.J. |
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Cites_doi | 10.1016/j.still.2005.02.012 10.1175/2009JCLI2683.1 10.1016/S0167-1987(97)00038-X 10.1039/c1em10520e 10.13031/2013.31032 10.3133/sir20065070 10.1175/JTECH-D-11-00103.1 10.1094/Phyto-85-948 10.1038/510326a 10.1111/j.1438-8677.2012.00588.x 10.1111/j.1752-1688.1998.tb05961.x 10.1016/0022-4898(85)90094-1 10.2134/agronj2005.0088 10.2134/agronj2003.0386 10.1016/j.agsy.2013.11.006 10.1038/nature06025 10.2134/agronj2005.0330 10.1023/A:1027353430164 |
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Snippet | Cotton and peanut grown under irrigation make up over 769,000 ha in the Southeast USA. The consumptive use of water for irrigation has significantly impacted... Abstract Cotton and peanut grown under irrigation make up over 769,000 ha in the Southeast USA. The consumptive use of water for irrigation has significantly... |
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SubjectTerms | Agricultural practices Arachis hypogaea Cereal crops Climate variability Consumptive use Cotton Cover crops Crop yield Cropping systems Crops Drought Extreme weather Irrigation Irrigation requirements Irrigation systems Irrigation water Legumes Moisture content Peanuts Research Paper Research Papers Roots Sand Soil (material) Soil types Soil water Stream discharge Stream flow Sustainable agriculture Water resources Water saving Water use |
Title | A sod-based cropping system for irrigation reductions |
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