How do different nitrogen application levels and irrigation practices impact biological nitrogen fixation and its distribution in paddy system?

Background and aims Biological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to which these factors influence BNF and its distribution in soil and rice is largely unclear. This study investigates this influence. Methods...

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Published inPlant and soil Vol. 467; no. 1/2; pp. 329 - 344
Main Authors Zhang, Yanhui, Hu, Tianlong, Wang, Hui, Jin, Haiyang, Liu, Qi, Lin, Zhibin, Liu, Benjuan, Liu, Hongtao, Chen, Zhe, Lin, Xinwu, Wang, Xiaojie, Ma, Jing, Sun, Delin, Sun, Xiaoli, Tang, Haoye, Bei, Qicheng, Cherubini, Francesco, Arp, Hans Peter H., Xie, Zubin
Format Journal Article
LanguageEnglish
Published Cham Springer Science + Business Media 01.10.2021
Springer International Publishing
Springer
Springer Nature B.V
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Abstract Background and aims Biological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to which these factors influence BNF and its distribution in soil and rice is largely unclear. This study investigates this influence. Methods An airtight, transparent growth chamber based 15 N-labelling system was used to investigate how different nitrogen application levels (0, 125, 187.5 and 250 kg N ha −1 ) and irrigation strategies (flooding irrigation or intermittent irrigation) impact the amount of BNF and its distribution in soil and rice. Results Nitrogen application at 125–250 kg N ha −1 reduced the amount of BNF by 81–86%. The inhibition effect of nitrogen application on BNF at a soil depth of 1–15 cm was greater than that at 0–1 cm. Relative to the continuous flooding irrigation, intermittent irrigation enhanced rice growth and promoted the transfer of fixed nitrogen from 0-1 cm soil layer to rice, but it did not change the total amount of BNF. Conclusions This study indicated that BNF supplied little nitrogen for rice production at the high nitrogen application levels, but the intermittent irrigation could promote utilization of biologically fixed nitrogen.
AbstractList Background and aimsBiological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to which these factors influence BNF and its distribution in soil and rice is largely unclear. This study investigates this influence.MethodsAn airtight, transparent growth chamber based 15N-labelling system was used to investigate how different nitrogen application levels (0, 125, 187.5 and 250 kg N ha−1) and irrigation strategies (flooding irrigation or intermittent irrigation) impact the amount of BNF and its distribution in soil and rice.ResultsNitrogen application at 125–250 kg N ha−1 reduced the amount of BNF by 81–86%. The inhibition effect of nitrogen application on BNF at a soil depth of 1–15 cm was greater than that at 0–1 cm. Relative to the continuous flooding irrigation, intermittent irrigation enhanced rice growth and promoted the transfer of fixed nitrogen from 0-1 cm soil layer to rice, but it did not change the total amount of BNF.ConclusionsThis study indicated that BNF supplied little nitrogen for rice production at the high nitrogen application levels, but the intermittent irrigation could promote utilization of biologically fixed nitrogen.
Background and aims Biological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to which these factors influence BNF and its distribution in soil and rice is largely unclear. This study investigates this influence. Methods An airtight, transparent growth chamber based .sup.15N-labelling system was used to investigate how different nitrogen application levels (0, 125, 187.5 and 250 kg N ha.sup.-1) and irrigation strategies (flooding irrigation or intermittent irrigation) impact the amount of BNF and its distribution in soil and rice. Results Nitrogen application at 125-250 kg N ha.sup.-1 reduced the amount of BNF by 81-86%. The inhibition effect of nitrogen application on BNF at a soil depth of 1-15 cm was greater than that at 0-1 cm. Relative to the continuous flooding irrigation, intermittent irrigation enhanced rice growth and promoted the transfer of fixed nitrogen from 0-1 cm soil layer to rice, but it did not change the total amount of BNF. Conclusions This study indicated that BNF supplied little nitrogen for rice production at the high nitrogen application levels, but the intermittent irrigation could promote utilization of biologically fixed nitrogen.
BACKGROUND AND AIMS: Biological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to which these factors influence BNF and its distribution in soil and rice is largely unclear. This study investigates this influence. METHODS: An airtight, transparent growth chamber based ¹⁵N-labelling system was used to investigate how different nitrogen application levels (0, 125, 187.5 and 250 kg N ha⁻¹) and irrigation strategies (flooding irrigation or intermittent irrigation) impact the amount of BNF and its distribution in soil and rice. RESULTS: Nitrogen application at 125–250 kg N ha⁻¹ reduced the amount of BNF by 81–86%. The inhibition effect of nitrogen application on BNF at a soil depth of 1–15 cm was greater than that at 0–1 cm. Relative to the continuous flooding irrigation, intermittent irrigation enhanced rice growth and promoted the transfer of fixed nitrogen from 0-1 cm soil layer to rice, but it did not change the total amount of BNF. CONCLUSIONS: This study indicated that BNF supplied little nitrogen for rice production at the high nitrogen application levels, but the intermittent irrigation could promote utilization of biologically fixed nitrogen.
Background and aims Biological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to which these factors influence BNF and its distribution in soil and rice is largely unclear. This study investigates this influence. Methods An airtight, transparent growth chamber based 15 N-labelling system was used to investigate how different nitrogen application levels (0, 125, 187.5 and 250 kg N ha −1 ) and irrigation strategies (flooding irrigation or intermittent irrigation) impact the amount of BNF and its distribution in soil and rice. Results Nitrogen application at 125–250 kg N ha −1 reduced the amount of BNF by 81–86%. The inhibition effect of nitrogen application on BNF at a soil depth of 1–15 cm was greater than that at 0–1 cm. Relative to the continuous flooding irrigation, intermittent irrigation enhanced rice growth and promoted the transfer of fixed nitrogen from 0-1 cm soil layer to rice, but it did not change the total amount of BNF. Conclusions This study indicated that BNF supplied little nitrogen for rice production at the high nitrogen application levels, but the intermittent irrigation could promote utilization of biologically fixed nitrogen.
Audience Academic
Author Lin, Xinwu
Sun, Delin
Wang, Hui
Sun, Xiaoli
Zhang, Yanhui
Jin, Haiyang
Liu, Qi
Liu, Benjuan
Ma, Jing
Cherubini, Francesco
Lin, Zhibin
Tang, Haoye
Liu, Hongtao
Arp, Hans Peter H.
Xie, Zubin
Chen, Zhe
Wang, Xiaojie
Hu, Tianlong
Bei, Qicheng
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gene
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Nitrogen fertilizer
Irrigation practices
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Snippet Background and aims Biological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to...
Background and aims Biological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to...
Background and aimsBiological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent to...
BACKGROUND AND AIMS: Biological nitrogen fixation (BNF) in paddy systems is impacted by nitrogen application levels and irrigation strategies, but the extent...
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SubjectTerms Agriculture
Airtightness
Biomedical and Life Sciences
Crop production
Ecology
Environmental aspects
Flooding
Growth chambers
Irrigation
Irrigation practices
Labeling
Life Sciences
Methods
Nitrogen
Nitrogen fertilizers
Nitrogen fixation
Nitrogenation
ORIGINAL ARTICLE
paddies
Physiological aspects
Plant Physiology
Plant Sciences
Rice
Soil depth
Soil investigations
Soil layers
Soil Science & Conservation
Soils
surge irrigation
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Title How do different nitrogen application levels and irrigation practices impact biological nitrogen fixation and its distribution in paddy system?
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