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An impact of agronomic practices of sustainable rice-wheat crop intensification on food security, economic adaptability, and environmental mitigation across eastern Indo-Gangetic Plains

Creator: Mishra, J.S.
Creator: Poonia, S.P.
Creator: Kumar, R.
Creator: Dubey, R.
Creator: Kumar, V.
Creator: Mondal, S.
Creator: Dwivedi, S. K.
Creator: Rao, K.K.
Creator: Kumar, R.
Creator: Tamta, M.
Creator: Verma, M.
Creator: Saurabh, K.
Creator: Kumar, S.
Creator: Bhatt, B.P.
Creator: Malik, R.K.
Creator: Mcdonald, A.
Creator: Bhaskar, S.
Year: 2021
URI: https://hdl.handle.net/10883/21581
Language: English
Publisher: Elsevier
Copyright: CIMMYT manages Intellectual Assets as International Public Goods. The user is free to download, print, store and share this work. In case you want to translate or create any other derivative work and share or distribute such translation/derivative work, please contact CIMMYT-Knowledge-Center@cgiar.org indicating the work you want to use and the kind of use you intend; CIMMYT will contact you with the suitable license for that purpose
Type: Article
Place of Publication: Amsterdam (Netherlands)
Volume: 267
DOI: 10.1016/j.fcr.2021.108164
Keywords: Energy Use
Keywords: Global Warming Potential
Keywords: Residue Management
Keywords: Resource Conservation Technologies
Keywords: Rice-Wheat-Greengram System
Keywords: Triple Zero-Tillage
Description: In the eastern Indo-Gangetic Plains (EIGP), conventional rice-wheat system has led to a decline in productivity, input-use efficiency, and profitability. To address these, a four-year field study was conducted to evaluate the performance of tillage and crop establishment (TCE) methods in rice-wheat-greengram rotation. The treatments included: 1) random puddled transplanted rice (RPTR) - conventional-till broadcast wheat (BCW) - zero-till greengram (ZTG); 2) line PTR (LPTR) - conventional-till drill sown wheat (CTW) - ZTG; 3) machine transplanted rice in puddled soil (CTMTR) - zero tillage wheat (ZTW) - ZTG; 4) machine transplanted rice in zero-till wet soil (ZTMTR) - ZTW - ZTG; 5) system of rice intensification (SRI) - system of wheat intensification (SWI) - ZTG; 6) direct-seeded rice (DSR) - ZTW - ZTG; and 7) zero-till DSR - ZTW - ZTG. During the initial two years, conventional rice system (PTR) recorded a 16.2 % higher rice grain yield than DSR system. Whereas in the fourth year, the rice yields under DSR and PTR were comparable. As compared to SRI/SWI, the average wheat yield in ZT system was significantly high, whereas in rice, SRI/SWI system was comparable with CT system. ZTW after non-puddled rice was at par to CTW after PTR. The ZT wheat produced 4.6 % more yield than CT system. DSR production system consumed 6.8 % less water compared to transplanted system. On the system basis, 10.8 % higher net returns were recorded with CA-based system compared to conventional system. The system energy productivity under CA-based production system was 14–36 % higher than PTR-based systems. CA-based system also led to 8–10 % lower global warming potential (GWP) than conventional methods. The current study indicated that as compared to conventional system, a significant gain in productivity, profitability and energy-use efficiency, and reduction in the environmental mitigation are possible with emerging alternative TCE methods. Long-term expansion and further refinement of these technologies in local areas need to be explored for the second green revolution.
Agrovoc: ENERGY CONSUMPTION
Agrovoc: GLOBAL WARMING
Agrovoc: RESIDUES
Agrovoc: RESOURCE CONSERVATION
Agrovoc: CROPPING SYSTEMS
Agrovoc: ZERO TILLAGE
ISSN: 0378-4290
Journal: Field Crops Research
Article number: 108164


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  • Sustainable Intensification
    Sustainable intensification agriculture including topics on cropping systems, agronomy, soil, mechanization, precision agriculture, etc.

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