Rice Production and Nitrogen Use Efficiency by Diverse Forms of Fertilization in Rice-Based Crop Rotation Systems

The rising demand for climate change mitigation has brought attention to agricultural systems focused on carbon farming and reducing emissions. Composting food wastes and livestock manure not only mitigates environmental concerns but also boosts soil fertility and crop yields as an alternative ferti...

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Main Authors: Woojin Kim, Moon-Sub Lee, Jwakyung Sung
Format: Article
Language:English
Published: MDPI AG 2024-11-01
Series:Agronomy
Subjects:
Online Access:https://www.mdpi.com/2073-4395/14/11/2663
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author Woojin Kim
Moon-Sub Lee
Jwakyung Sung
author_facet Woojin Kim
Moon-Sub Lee
Jwakyung Sung
author_sort Woojin Kim
collection DOAJ
description The rising demand for climate change mitigation has brought attention to agricultural systems focused on carbon farming and reducing emissions. Composting food wastes and livestock manure not only mitigates environmental concerns but also boosts soil fertility and crop yields as an alternative fertilizer. In this experiment, we investigated the effects of different fertilizer types (chemical and organic waste compost) and crop rotations (rice–fallow, rice–Italian ryegrass, and rice–potato) on rice production, nitrogen use efficiency, and soil carbon stocks. In this experiment, soil carbon and nitrogen retention were more influenced by compost nutrient levels than by crop rotation types. Overall, as the nitrogen levels increased, the rice yields improved with both chemical and organic waste fertilizers. Among the crop rotations, the rice–Italian ryegrass rotation showed a higher nitrogen use efficiency. Optimal fertility levels, balancing nitrogen use efficiency, yield, and soil carbon were observed between 523 and 582 kg N ha<sup>−1</sup> when combined with specific crop rotations. Moreover, soil total carbon and soil total nitrogen varied among crop rotation systems. Our results indicate that organic waste compost can be a potential alternative to chemical fertilizers, while crop rotations offer a viable approach for maximizing the environmental benefits.
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series Agronomy
spelling doaj-art-d887ce7f6e90467c81a44a6adef913a32024-11-26T17:44:54ZengMDPI AGAgronomy2073-43952024-11-011411266310.3390/agronomy14112663Rice Production and Nitrogen Use Efficiency by Diverse Forms of Fertilization in Rice-Based Crop Rotation SystemsWoojin Kim0Moon-Sub Lee1Jwakyung Sung2Department of Crop Science, Chungbuk National University, Cheongju 28644, Republic of KoreaDepartment of Crop Science, Chungbuk National University, Cheongju 28644, Republic of KoreaDepartment of Crop Science, Chungbuk National University, Cheongju 28644, Republic of KoreaThe rising demand for climate change mitigation has brought attention to agricultural systems focused on carbon farming and reducing emissions. Composting food wastes and livestock manure not only mitigates environmental concerns but also boosts soil fertility and crop yields as an alternative fertilizer. In this experiment, we investigated the effects of different fertilizer types (chemical and organic waste compost) and crop rotations (rice–fallow, rice–Italian ryegrass, and rice–potato) on rice production, nitrogen use efficiency, and soil carbon stocks. In this experiment, soil carbon and nitrogen retention were more influenced by compost nutrient levels than by crop rotation types. Overall, as the nitrogen levels increased, the rice yields improved with both chemical and organic waste fertilizers. Among the crop rotations, the rice–Italian ryegrass rotation showed a higher nitrogen use efficiency. Optimal fertility levels, balancing nitrogen use efficiency, yield, and soil carbon were observed between 523 and 582 kg N ha<sup>−1</sup> when combined with specific crop rotations. Moreover, soil total carbon and soil total nitrogen varied among crop rotation systems. Our results indicate that organic waste compost can be a potential alternative to chemical fertilizers, while crop rotations offer a viable approach for maximizing the environmental benefits.https://www.mdpi.com/2073-4395/14/11/2663cropping systemfertilizationN use efficiencyrice production
spellingShingle Woojin Kim
Moon-Sub Lee
Jwakyung Sung
Rice Production and Nitrogen Use Efficiency by Diverse Forms of Fertilization in Rice-Based Crop Rotation Systems
Agronomy
cropping system
fertilization
N use efficiency
rice production
title Rice Production and Nitrogen Use Efficiency by Diverse Forms of Fertilization in Rice-Based Crop Rotation Systems
title_full Rice Production and Nitrogen Use Efficiency by Diverse Forms of Fertilization in Rice-Based Crop Rotation Systems
title_fullStr Rice Production and Nitrogen Use Efficiency by Diverse Forms of Fertilization in Rice-Based Crop Rotation Systems
title_full_unstemmed Rice Production and Nitrogen Use Efficiency by Diverse Forms of Fertilization in Rice-Based Crop Rotation Systems
title_short Rice Production and Nitrogen Use Efficiency by Diverse Forms of Fertilization in Rice-Based Crop Rotation Systems
title_sort rice production and nitrogen use efficiency by diverse forms of fertilization in rice based crop rotation systems
topic cropping system
fertilization
N use efficiency
rice production
url https://www.mdpi.com/2073-4395/14/11/2663
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AT moonsublee riceproductionandnitrogenuseefficiencybydiverseformsoffertilizationinricebasedcroprotationsystems
AT jwakyungsung riceproductionandnitrogenuseefficiencybydiverseformsoffertilizationinricebasedcroprotationsystems