Biological nitrogen fixation in paddy soils is driven by multiple edaphic factors and available phosphorus is the greatest contributor
Biological nitrogen (N) fixation (BNF) is important for sustainable rice cultivation. Various edaphic factors have been individually evaluated for their effects on BNF in paddy soils. However, no single factor could fully explain the different soil outcomes. Paddy BNF is more likely to be simultaneo...
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Abstract | Biological nitrogen (N) fixation (BNF) is important for sustainable rice cultivation. Various edaphic factors have been individually evaluated for their effects on BNF in paddy soils. However, no single factor could fully explain the different soil outcomes. Paddy BNF is more likely to be simultaneously influenced to various degrees by combinations of several edaphic factors; however, the relative importance of the interaction of multiple edaphic factors on the regulation of BNF in paddy soils is still unclear. Twenty-seven paddy soil samples with different soil properties were collected from the major rice cropping areas in Southwest and Northeast China to determine the edaphic factors affecting paddy BNF amount. Rice was transplanted into pots filled with paddy soils and grown in a 15N2-enriched airtight chamber. Estimation of BNF was based on the measurements of 15N enrichment in the paddy soils and rice plants at the end of a 77-d incubation period. The BNF amounts ranged from 0.66 to 12.3 kg ha-1, with a significant positive relationship with available phosphorus (AP) and significant quadratic relationships with available molybdenum (AMo) and total N (TN). Available P explained 42% of the observed variation in BNF, TN explained 17%, and AMo explained 13%. The specific interaction between soil cation exchange capacity and available soil N (as determined by rice N uptake) accounted for 28% of the variation in BNF. The BNF amount was decreased when AP was < 14 mg kg-1, AMo < 0.09 mg kg-1, or TN was > 3.2 g kg-1. These results provide valuable benchmarks that could be used to guide farmers in managing paddy soils to improve the potential contribution of paddy BNF to soil fertility. |
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AbstractList | Biological nitrogen (N) fixation (BNF) is important for sustainable rice cultivation. Various edaphic factors have been individually evaluated for their effects on BNF in paddy soils. However, no single factor could fully explain the different soil outcomes. Paddy BNF is more likely to be simultaneously influenced to various degrees by combinations of several edaphic factors; however, the relative importance of the interaction of multiple edaphic factors on the regulation of BNF in paddy soils is still unclear. Twenty-seven paddy soil samples with different soil properties were collected from the major rice cropping areas in Southwest and Northeast China to determine the edaphic factors affecting paddy BNF amount. Rice was transplanted into pots filled with paddy soils and grown in a 15N2-enriched airtight chamber. Estimation of BNF was based on the measurements of 15N enrichment in the paddy soils and rice plants at the end of a 77-d incubation period. The BNF amounts ranged from 0.66 to 12.3 kg ha-1, with a significant positive relationship with available phosphorus (AP) and significant quadratic relationships with available molybdenum (AMo) and total N (TN). Available P explained 42% of the observed variation in BNF, TN explained 17%, and AMo explained 13%. The specific interaction between soil cation exchange capacity and available soil N (as determined by rice N uptake) accounted for 28% of the variation in BNF. The BNF amount was decreased when AP was < 14 mg kg-1, AMo < 0.09 mg kg-1, or TN was > 3.2 g kg-1. These results provide valuable benchmarks that could be used to guide farmers in managing paddy soils to improve the potential contribution of paddy BNF to soil fertility. Biological nitrogen(N)fixation(BNF)is important for sustainable rice cultivation.Various edaphic factors have been individually evaluated for their effects on BNF in paddy soils.However,no single factor could fully explain the different soil outcomes.Paddy BNF is more likely to be simultaneously influenced to various degrees by combinations of several edaphic factors;however,the relative importance of the interaction of multiple edaphic factors on the regulation of BNF in paddy soils is still unclear.Twenty-seven paddy soil samples with different soil properties were collected from the major rice cropping areas in Southwest and Northeast China to determine the edaphic factors affecting paddy BNF amount.Rice was transplanted into pots filled with paddy soils and grown in a 15N2-enriched airtight chamber.Estimation of BNF was based on the measurements of 15N enrichment in the paddy soils and rice plants at the end of a 77-d incubation period.The BNF amounts ranged from 0.66 to 12.3 kg ha-1,with a significant positive relationship with available phosphorus(AP)and significant quadratic relationships with available molybdenum(AMo)and total N(TN).Available P explained 42%of the observed variation in BNF,TN explained 17%,and AMo explained 13%.The specific interaction between soil cation exchange capacity and available soil N(as determined by rice N uptake)accounted for 28%of the variation in BNF.The BNF amount was decreased when AP was<14 mg kg-1,AMo<0.09 mg kg-1,or TN was>3.2 g kg-1.These results provide valuable benchmarks that could be used to guide farmers in managing paddy soils to improve the potential contribution of paddy BNF to soil fertility. Biological nitrogen (N) fixation (BNF) is important for sustainable rice cultivation. Various edaphic factors have been individually evaluated for their effects on BNF in paddy soils. However, no single factor could fully explain the different soil outcomes. Paddy BNF is more likely to be simultaneously influenced to various degrees by combinations of several edaphic factors; however, the relative importance of the interaction of multiple edaphic factors on the regulation of BNF in paddy soils is still unclear. Twenty-seven paddy soil samples with different soil properties were collected from the major rice cropping areas in Southwest and Northeast China to determine the edaphic factors affecting paddy BNF amount. Rice was transplanted into pots filled with paddy soils and grown in a ¹⁵N₂-enriched airtight chamber. Estimation of BNF was based on the measurements of ¹⁵N enrichment in the paddy soils and rice plants at the end of a 77-d incubation period. The BNF amounts ranged from 0.66 to 12.3 kg ha⁻¹, with a significant positive relationship with available phosphorus (AP) and significant quadratic relationships with available molybdenum (AMo) and total N (TN). Available P explained 42% of the observed variation in BNF, TN explained 17%, and AMo explained 13%. The specific interaction between soil cation exchange capacity and available soil N (as determined by rice N uptake) accounted for 28% of the variation in BNF. The BNF amount was decreased when AP was < 14 mg kg⁻¹, AMo < 0.09 mg kg⁻¹, or TN was > 3.2 g kg⁻¹. These results provide valuable benchmarks that could be used to guide farmers in managing paddy soils to improve the potential contribution of paddy BNF to soil fertility. |
Author | ZHOU, Rong LIU, Benjuan WANG, Xiaojie LIU, Qi MA, Jing ZHU, Jianguo LIU, Gang ZHANG, Yanhui JIN, Haiyang JIN, Penghui XIE, Zubin WANG, Hui BEI, Qicheng HU, Tianlong CHEN, Zhe LIN, Zhibin LIN, Xingwu LIU, Hongtao |
AuthorAffiliation | State Key Laboratory of Soil and Sustainable Agriculture,Institute of Soil Science,Chinese Academy of Sciences,Nanjing 210008(China);University of Chinese Academy of Sciences,Beijing 100049(China)%State Key Laboratory of Soil and Sustainable Agriculture,Institute of Soil Science,Chinese Academy of Sciences,Nanjing 210008(China);School of Environment and Safety Engineering,Nanjing Polytechnic Institute,Nanjing 210048(China)%State Key Laboratory of Soil and Sustainable Agriculture,Institute of Soil Science,Chinese Academy of Sciences,Nanjing 210008(China);Co-Innovation Center for Sustainable Forestry in Southern China,Nanjing Forestry University,Nanjing 210037(China)%State Key Laboratory of Soil and Sustainable Agriculture,Institute of Soil Science,Chinese Academy of Sciences,Nanjing 210008(China)%State Key Laboratory of Soil and Sustainable Agriculture,Institute of Soil Science,Chinese Academy of Sciences,Nanjing 210008(China);Department of Soil Ecology,Helmholtz Centre for Environmenta |
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Snippet | Biological nitrogen (N) fixation (BNF) is important for sustainable rice cultivation. Various edaphic factors have been individually evaluated for their... Biological nitrogen(N)fixation(BNF)is important for sustainable rice cultivation.Various edaphic factors have been individually evaluated for their effects on... |
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SubjectTerms | available molybdenum available soil nitrogen cation exchange capacity China influencing factors molybdenum multiplicative effect nitrogen nitrogen fixation paddies paddy soils phosphorus rice rice field soil fertility total nitrogen |
Title | Biological nitrogen fixation in paddy soils is driven by multiple edaphic factors and available phosphorus is the greatest contributor |
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