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Managing nutrient cycles in crop and livestock systems with green technologies

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Managing nutrient cycles in crop and livestock systems with green technologies. / Vayssières, Jonathan; Rufino, Mariana Cristina.
Green Technologies in Food Production and Processing. Springer, 2012. p. 151-182 (Food Engineering Series).

Research output: Contribution in Book/Report/Proceedings - With ISBN/ISSNChapter

Harvard

Vayssières, J & Rufino, MC 2012, Managing nutrient cycles in crop and livestock systems with green technologies. in Green Technologies in Food Production and Processing. Food Engineering Series, Springer, pp. 151-182. https://doi.org/10.1007/978-1-4614-1587-9_7

APA

Vayssières, J., & Rufino, M. C. (2012). Managing nutrient cycles in crop and livestock systems with green technologies. In Green Technologies in Food Production and Processing (pp. 151-182). (Food Engineering Series). Springer. https://doi.org/10.1007/978-1-4614-1587-9_7

Vancouver

Vayssières J, Rufino MC. Managing nutrient cycles in crop and livestock systems with green technologies. In Green Technologies in Food Production and Processing. Springer. 2012. p. 151-182. (Food Engineering Series). doi: 10.1007/978-1-4614-1587-9_7

Author

Vayssières, Jonathan ; Rufino, Mariana Cristina. / Managing nutrient cycles in crop and livestock systems with green technologies. Green Technologies in Food Production and Processing. Springer, 2012. pp. 151-182 (Food Engineering Series).

Bibtex

@inbook{cfc22fe8f55b4935bb7b1154363764f2,
title = "Managing nutrient cycles in crop and livestock systems with green technologies",
abstract = "The cycles of several key nutrients have been substantially altered by agricultural activities over the past century. It is urgent to better manage nutrient cycling in agro-ecosystems. In developing countries, it will contribute to soil fertility recovery and food production increase, and in industrial countries it will participate in environmental impact mitigation. To better access the gains associated with nutrient management, this chapter proposes a multiscale view of the nitrogen (N) cycle in agro-ecosystems: (A) At animal-manure-soil-plant levels, the literature review indicates the large range of observed N loss rates, the complexity of processes implicated and the multiple specific technical options existing for limiting these losses. (B) At farm-household levels, two integrated simulation models are used to analyze N cycling within low and high-input systems. With a well chosen combination of technical options, N use efficiency can be substantially improved in farming systems of both developing and industrialized countries. (C) At a global level, this study underlines the central role played by livestock in the N cycle. Domestic animals globally excrete 102 MT N year−1 (i.e., 102 × 106 tons of N per year), from which only 32% is used to fertilize crops and, paradoxically, 78 MT N are annually generated to fertilize crops (via the energy costly Haber-Bosch process). A global view of the potential gains associated with better nutrient management is still lacking. This proposes for research to seriously investigate tropical contexts (1) to quantify more systematically nutrient losses occurring at the animal-manure-soil-plant levels, and (2) to develop widely, farm-household scale studies, based on the integrated models and indicators proposed in this study, in order to take better consideration of the diversity of world farming systems and to reduce uncertainty of analyses.",
keywords = "Direct Deposition, Emission Rate, Grass Silage, Manure Handling, Mineral Fertilizer",
author = "Jonathan Vayssi{\`e}res and Rufino, {Mariana Cristina}",
year = "2012",
month = jan,
day = "1",
doi = "10.1007/978-1-4614-1587-9_7",
language = "English",
isbn = "9781461415862",
series = "Food Engineering Series",
publisher = "Springer",
pages = "151--182",
booktitle = "Green Technologies in Food Production and Processing",

}

RIS

TY - CHAP

T1 - Managing nutrient cycles in crop and livestock systems with green technologies

AU - Vayssières, Jonathan

AU - Rufino, Mariana Cristina

PY - 2012/1/1

Y1 - 2012/1/1

N2 - The cycles of several key nutrients have been substantially altered by agricultural activities over the past century. It is urgent to better manage nutrient cycling in agro-ecosystems. In developing countries, it will contribute to soil fertility recovery and food production increase, and in industrial countries it will participate in environmental impact mitigation. To better access the gains associated with nutrient management, this chapter proposes a multiscale view of the nitrogen (N) cycle in agro-ecosystems: (A) At animal-manure-soil-plant levels, the literature review indicates the large range of observed N loss rates, the complexity of processes implicated and the multiple specific technical options existing for limiting these losses. (B) At farm-household levels, two integrated simulation models are used to analyze N cycling within low and high-input systems. With a well chosen combination of technical options, N use efficiency can be substantially improved in farming systems of both developing and industrialized countries. (C) At a global level, this study underlines the central role played by livestock in the N cycle. Domestic animals globally excrete 102 MT N year−1 (i.e., 102 × 106 tons of N per year), from which only 32% is used to fertilize crops and, paradoxically, 78 MT N are annually generated to fertilize crops (via the energy costly Haber-Bosch process). A global view of the potential gains associated with better nutrient management is still lacking. This proposes for research to seriously investigate tropical contexts (1) to quantify more systematically nutrient losses occurring at the animal-manure-soil-plant levels, and (2) to develop widely, farm-household scale studies, based on the integrated models and indicators proposed in this study, in order to take better consideration of the diversity of world farming systems and to reduce uncertainty of analyses.

AB - The cycles of several key nutrients have been substantially altered by agricultural activities over the past century. It is urgent to better manage nutrient cycling in agro-ecosystems. In developing countries, it will contribute to soil fertility recovery and food production increase, and in industrial countries it will participate in environmental impact mitigation. To better access the gains associated with nutrient management, this chapter proposes a multiscale view of the nitrogen (N) cycle in agro-ecosystems: (A) At animal-manure-soil-plant levels, the literature review indicates the large range of observed N loss rates, the complexity of processes implicated and the multiple specific technical options existing for limiting these losses. (B) At farm-household levels, two integrated simulation models are used to analyze N cycling within low and high-input systems. With a well chosen combination of technical options, N use efficiency can be substantially improved in farming systems of both developing and industrialized countries. (C) At a global level, this study underlines the central role played by livestock in the N cycle. Domestic animals globally excrete 102 MT N year−1 (i.e., 102 × 106 tons of N per year), from which only 32% is used to fertilize crops and, paradoxically, 78 MT N are annually generated to fertilize crops (via the energy costly Haber-Bosch process). A global view of the potential gains associated with better nutrient management is still lacking. This proposes for research to seriously investigate tropical contexts (1) to quantify more systematically nutrient losses occurring at the animal-manure-soil-plant levels, and (2) to develop widely, farm-household scale studies, based on the integrated models and indicators proposed in this study, in order to take better consideration of the diversity of world farming systems and to reduce uncertainty of analyses.

KW - Direct Deposition

KW - Emission Rate

KW - Grass Silage

KW - Manure Handling

KW - Mineral Fertilizer

U2 - 10.1007/978-1-4614-1587-9_7

DO - 10.1007/978-1-4614-1587-9_7

M3 - Chapter

AN - SCOPUS:85060612293

SN - 9781461415862

T3 - Food Engineering Series

SP - 151

EP - 182

BT - Green Technologies in Food Production and Processing

PB - Springer

ER -