Multiple Nitrogen Sources Application Inhibits Increasing Ammonia Volatilization Under Reducing Irrigation DOI Creative Commons
Taotao Chen,

Erping Cui,

Ke Sun

et al.

Agronomy, Journal Year: 2024, Volume and Issue: 14(12), P. 2927 - 2927

Published: Dec. 8, 2024

Farmland ammonia (NH3) volatilization is an important source of NH3, and the application chemical fertilizer nitrogen (N) main factor affecting NH3 volatilization. The optimal substitution with organic manure straw reportedly reduces volatilization, while reducing irrigation increases However, combined effect on role microorganisms in this process remains unclear. In a soil column experiment, microbial composition were measured under both multiple N sources different levels by vented-chamber method metagenomic sequencing. results revealed that reduced cumulative 16.5–75.4% compared to single application, decreasing trend conditions was greater. Microorganisms had more than conventional irrigation. abundance nirA, arcC, E3.5.1.49, E3.5.5.1 (ammonia-producing) genes varied significantly at two levels. Overall, could inhibit increasing fertilizer. Our findings contribute valuable insights into

Language: Английский

Impact of Crop Residue, Nutrients, and Soil Moisture on Methane Emissions from Soil under Long-Term Conservation Tillage DOI Creative Commons
Rajesh Choudhary, Sangeeta Lenka, Dinesh Kumar Yadav

et al.

Soil Systems, Journal Year: 2024, Volume and Issue: 8(3), P. 88 - 88

Published: Aug. 13, 2024

Greenhouse gas emissions from agricultural production systems are a major area of concern in mitigating climate change. Therefore, study was conducted to investigate the effects crop residue, nutrient management, and soil moisture on methane (CH4) maize, rice, soybean, wheat systems. In this study, incubation experiments were with four residue types (maize, wheat), seven management treatments {N0P0K0 (no nutrients), N0PK, N100PK, N150PK, N100PK + manure@ 5 Mg ha−1, biochar@ N150PK+ ha−1}, two levels (80% FC, 60% FC). The results indicated that interactive type, significantly affected fluxes. After 87 days incubation, treatment receiving rice at FC had highest cumulative CH4 mitigation −19.4 µg C kg−1 soil, emission observed application N0PK 80% (+12.93 soil). Nutrient mixed across following order: N150PK > biochar N0P0K0 manure N100PK. Decreasing reduced all treatments. Wheat maize residues exhibited carbon mineralization rates, followed by soybean residues. inputs generally decreased mineralization. regression analysis dominant predictor variables estimated 31% fluxes Vertisols. show complexity dynamics emphasize importance integrated crop, nutrient, (irrigation) strategies need be developed minimize mitigate

Language: Английский

Citations

4
Legume-based rotation benefits crop productivity and agricultural sustainability in the North China Plain DOI
Liying Zhang, Chunyan Liu, Wei Yao

et al.

Soil and Tillage Research, Journal Year: 2025, Volume and Issue: 250, P. 106502 - 106502

Published: Feb. 20, 2025

Language: Английский

Citations

0
Reducing nitrogen application under water saving irrigation reduces greenhouse gas emissions by regulating the population of functional microorganisms, compatible with improving the wheat yield in the North China Plain DOI

Chuanliang Li,

Yu Shi,

Zhenwen Yu

et al.

Plant and Soil, Journal Year: 2025, Volume and Issue: unknown

Published: May 9, 2025

Language: Английский

Citations

0
Drip Fertigation Increases Maize Grain Yield by Affecting Phenology, Grain Filling Process, Biomass Accumulation and Translocation: A 4-Year Field Trial DOI Creative Commons
Ruiqi Du, Zhijun Li, Youzhen Xiang

et al.

Plants, Journal Year: 2024, Volume and Issue: 13(14), P. 1903 - 1903

Published: July 10, 2024

Drip fertigation (DF) is a widely used technology to increase grain yield with water and fertilizer conservation. However, the mechanism of high (GY) under DF still unclear. Here, four-year field experiment assessed impacts four treatments (i.e., conventional irrigation nitrogen application, CK; drip fertilization, DI; split-nitrogen irrigation, SF; fertigation, DF) on maize phenology, leaf photosynthetic rates, filling processes, plant biomass, GY. The results showed that significantly increased GY by affecting traits, aboveground biomass (BIO) accumulation, translocation. Specifically, chlorophyll content, which enhanced together an area index, promoted BIO accumulation. As result, at silking stage 29.5%, transported 109.2% (1.2 t ha

Language: Английский

Citations

3
Biochar for sustainable agriculture: Improved soil carbon storage and reduced emissions on cropland DOI
Debo He, Han Ma,

Dongni Hu

et al.

Journal of Environmental Management, Journal Year: 2024, Volume and Issue: 371, P. 123147 - 123147

Published: Nov. 6, 2024

Language: Английский

Citations

3
Optimization of inter-seasonal nitrogen allocation increases yield and resource-use efficiency in a water-limited wheat–maize cropping system in the North China Plain DOI Creative Commons

Xiaonan Zhou,

Chenghang Du, Haoran Li

et al.

The Crop Journal, Journal Year: 2024, Volume and Issue: 12(3), P. 907 - 914

Published: April 26, 2024

Winter wheat–summer maize cropping system in the North China Plain often experiences drought-induced yield reduction wheat season and rainwater nitrogen (N) fertilizer losses season. This study aimed to identify an optimal interseasonal water- N-management strategy alleviate these losses. Four ratios of allocation 360 kg N ha−1 between seasons under one-time presowing root-zone irrigation (W0) additional jointing anthesis (W2) one after sowing were set as follows: N1 (120:240), N2 (180:180), N3 (240:120) N4 (300:60). The results showed that W0, treatment produced highest annual yield, crop water productivity (WPc), partial factor (PFPN). Increased W0 improved without affecting surplus nitrate harvest was retained topsoil layers available for subsequent maize. Under W2, largest treatment. risk leaching increased W2 when application rate exceeded treatment, especially wet year. Compared W2N2, W0N3 maintained 95.2 % grain over two years. WPc higher than Therefore, following limited total rate, appropriate transfer from had potential a "triple win" high WPC PFPN water-limited wheat–maize

Language: Английский

Citations

1
Multiple Nitrogen Sources Application Inhibits Increasing Ammonia Volatilization Under Reducing Irrigation DOI Creative Commons
Taotao Chen,

Erping Cui,

Ke Sun

et al.

Agronomy, Journal Year: 2024, Volume and Issue: 14(12), P. 2927 - 2927

Published: Dec. 8, 2024

Farmland ammonia (NH3) volatilization is an important source of NH3, and the application chemical fertilizer nitrogen (N) main factor affecting NH3 volatilization. The optimal substitution with organic manure straw reportedly reduces volatilization, while reducing irrigation increases However, combined effect on role microorganisms in this process remains unclear. In a soil column experiment, microbial composition were measured under both multiple N sources different levels by vented-chamber method metagenomic sequencing. results revealed that reduced cumulative 16.5–75.4% compared to single application, decreasing trend conditions was greater. Microorganisms had more than conventional irrigation. abundance nirA, arcC, E3.5.1.49, E3.5.5.1 (ammonia-producing) genes varied significantly at two levels. Overall, could inhibit increasing fertilizer. Our findings contribute valuable insights into

Language: Английский

Citations

0