Public–private partnership model for intensive maize production in China: A synergistic strategy for food security and ecosystem economic budget

Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental footprints. Here, we studied public–private partnership (PPP) model for sustainable intensification of maize production to achieve co‐benefits of f...

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Published inFood and energy security Vol. 10; no. 4
Main Authors Wang, Xingbang, Zhang, Wushuai, Lakshmanan, Prakash, Qian, Chunrong, Ge, Xuanliang, Hao, Yubo, Wang, Junhe, Liu, Yutao, Yang, Huiying, Zhang, Zhongdong, Guo, Zhengyu, Gong, Shuai, Fan, Tinglu, Zhang, Jianjun, Dong, Guohao, Shen, Dongfeng, Wang, Yuhong, Cheng, Weidong, Lv, Juzhi, Wang, Xiuquan, Lu, Tingqi, Yin, Chaojing, Yang, Huan, Luo, Jinlin, Qiao, Yuan, Yao, Zhi, Chen, Xinping
Format Journal Article
LanguageEnglish
Published Bognor Regis John Wiley & Sons, Inc 01.11.2021
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Abstract Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental footprints. Here, we studied public–private partnership (PPP) model for sustainable intensification of maize production to achieve co‐benefits of food security and environmental sustainability. The PPP model enabled the development of an effective partnership by bringing complementary skills, knowledge, proprietary products and technologies, and resources of public research community and private enterprises to create a new, operational maize farming system in China. We conducted on‐farm research with farmer participation in four major maize‐growing regions spanning temperate to sub‐tropical zones in China for 2 years. The PPP model achieved 78.7% of maize yield potential compared with 61.8% realized in smallholder farm (SHF) (11.0 Mg ha−1 vs. 8.6 Mg ha−1). Overall, environmental externalities of PPP were up to 32.7% lower than that of SHF, depending on the region studied. PPP significantly reduced reactive nitrogen losses by 31.3%–35.5% compared with SHF in both years. There was no significant difference between PPP and SHF for greenhouse gas emission in 2018, but it was significantly lower in PPP (19%) compared to SHF in 2019. Similarly, PPP significantly reduced soil acidification potential (by 10.1%–42.2%) and eutrophication of waterbodies (21.5%) in comparison to SHF. Overall, the net ecosystem economic budget increased 277 USD ha−1 with PPP. The PPP model provides new insights into improving food security and ecosystem and economic budget. As a logical progression to our research, future work should focus on (a) the reasons for the persistence of inter‐regional yield gap in PPP model and (b) to gain a better understanding of socioeconomic drivers critical for successful PPP in different maize‐growing regions. Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental footprints. We studied public–private partnership (PPP) model for sustainable maize production to achieve co‐benefits of food security and environmental sustainability. And the PPP model provides new insights into improving food security and ecosystem and economic budget.
AbstractList Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental footprints. Here, we studied public–private partnership (PPP) model for sustainable intensification of maize production to achieve co‐benefits of food security and environmental sustainability. The PPP model enabled the development of an effective partnership by bringing complementary skills, knowledge, proprietary products and technologies, and resources of public research community and private enterprises to create a new, operational maize farming system in China. We conducted on‐farm research with farmer participation in four major maize‐growing regions spanning temperate to sub‐tropical zones in China for 2 years. The PPP model achieved 78.7% of maize yield potential compared with 61.8% realized in smallholder farm (SHF) (11.0 Mg ha−1 vs. 8.6 Mg ha−1). Overall, environmental externalities of PPP were up to 32.7% lower than that of SHF, depending on the region studied. PPP significantly reduced reactive nitrogen losses by 31.3%–35.5% compared with SHF in both years. There was no significant difference between PPP and SHF for greenhouse gas emission in 2018, but it was significantly lower in PPP (19%) compared to SHF in 2019. Similarly, PPP significantly reduced soil acidification potential (by 10.1%–42.2%) and eutrophication of waterbodies (21.5%) in comparison to SHF. Overall, the net ecosystem economic budget increased 277 USD ha−1 with PPP. The PPP model provides new insights into improving food security and ecosystem and economic budget. As a logical progression to our research, future work should focus on (a) the reasons for the persistence of inter‐regional yield gap in PPP model and (b) to gain a better understanding of socioeconomic drivers critical for successful PPP in different maize‐growing regions.
Abstract Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental footprints. Here, we studied public–private partnership (PPP) model for sustainable intensification of maize production to achieve co‐benefits of food security and environmental sustainability. The PPP model enabled the development of an effective partnership by bringing complementary skills, knowledge, proprietary products and technologies, and resources of public research community and private enterprises to create a new, operational maize farming system in China. We conducted on‐farm research with farmer participation in four major maize‐growing regions spanning temperate to sub‐tropical zones in China for 2 years. The PPP model achieved 78.7% of maize yield potential compared with 61.8% realized in smallholder farm (SHF) (11.0 Mg ha −1 vs. 8.6 Mg ha −1 ). Overall, environmental externalities of PPP were up to 32.7% lower than that of SHF, depending on the region studied. PPP significantly reduced reactive nitrogen losses by 31.3%–35.5% compared with SHF in both years. There was no significant difference between PPP and SHF for greenhouse gas emission in 2018, but it was significantly lower in PPP (19%) compared to SHF in 2019. Similarly, PPP significantly reduced soil acidification potential (by 10.1%–42.2%) and eutrophication of waterbodies (21.5%) in comparison to SHF. Overall, the net ecosystem economic budget increased 277 USD ha −1 with PPP. The PPP model provides new insights into improving food security and ecosystem and economic budget. As a logical progression to our research, future work should focus on (a) the reasons for the persistence of inter‐regional yield gap in PPP model and (b) to gain a better understanding of socioeconomic drivers critical for successful PPP in different maize‐growing regions.
Abstract Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental footprints. Here, we studied public–private partnership (PPP) model for sustainable intensification of maize production to achieve co‐benefits of food security and environmental sustainability. The PPP model enabled the development of an effective partnership by bringing complementary skills, knowledge, proprietary products and technologies, and resources of public research community and private enterprises to create a new, operational maize farming system in China. We conducted on‐farm research with farmer participation in four major maize‐growing regions spanning temperate to sub‐tropical zones in China for 2 years. The PPP model achieved 78.7% of maize yield potential compared with 61.8% realized in smallholder farm (SHF) (11.0 Mg ha−1 vs. 8.6 Mg ha−1). Overall, environmental externalities of PPP were up to 32.7% lower than that of SHF, depending on the region studied. PPP significantly reduced reactive nitrogen losses by 31.3%–35.5% compared with SHF in both years. There was no significant difference between PPP and SHF for greenhouse gas emission in 2018, but it was significantly lower in PPP (19%) compared to SHF in 2019. Similarly, PPP significantly reduced soil acidification potential (by 10.1%–42.2%) and eutrophication of waterbodies (21.5%) in comparison to SHF. Overall, the net ecosystem economic budget increased 277 USD ha−1 with PPP. The PPP model provides new insights into improving food security and ecosystem and economic budget. As a logical progression to our research, future work should focus on (a) the reasons for the persistence of inter‐regional yield gap in PPP model and (b) to gain a better understanding of socioeconomic drivers critical for successful PPP in different maize‐growing regions.
Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental footprints. Here, we studied public–private partnership (PPP) model for sustainable intensification of maize production to achieve co‐benefits of food security and environmental sustainability. The PPP model enabled the development of an effective partnership by bringing complementary skills, knowledge, proprietary products and technologies, and resources of public research community and private enterprises to create a new, operational maize farming system in China. We conducted on‐farm research with farmer participation in four major maize‐growing regions spanning temperate to sub‐tropical zones in China for 2 years. The PPP model achieved 78.7% of maize yield potential compared with 61.8% realized in smallholder farm (SHF) (11.0 Mg ha−1 vs. 8.6 Mg ha−1). Overall, environmental externalities of PPP were up to 32.7% lower than that of SHF, depending on the region studied. PPP significantly reduced reactive nitrogen losses by 31.3%–35.5% compared with SHF in both years. There was no significant difference between PPP and SHF for greenhouse gas emission in 2018, but it was significantly lower in PPP (19%) compared to SHF in 2019. Similarly, PPP significantly reduced soil acidification potential (by 10.1%–42.2%) and eutrophication of waterbodies (21.5%) in comparison to SHF. Overall, the net ecosystem economic budget increased 277 USD ha−1 with PPP. The PPP model provides new insights into improving food security and ecosystem and economic budget. As a logical progression to our research, future work should focus on (a) the reasons for the persistence of inter‐regional yield gap in PPP model and (b) to gain a better understanding of socioeconomic drivers critical for successful PPP in different maize‐growing regions. Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental footprints. We studied public–private partnership (PPP) model for sustainable maize production to achieve co‐benefits of food security and environmental sustainability. And the PPP model provides new insights into improving food security and ecosystem and economic budget.
Author Lv, Juzhi
Guo, Zhengyu
Luo, Jinlin
Gong, Shuai
Wang, Yuhong
Lakshmanan, Prakash
Zhang, Wushuai
Yang, Huiying
Hao, Yubo
Dong, Guohao
Cheng, Weidong
Wang, Xiuquan
Qian, Chunrong
Lu, Tingqi
Liu, Yutao
Yao, Zhi
Wang, Junhe
Ge, Xuanliang
Fan, Tinglu
Shen, Dongfeng
Qiao, Yuan
Wang, Xingbang
Zhang, Jianjun
Chen, Xinping
Zhang, Zhongdong
Yin, Chaojing
Yang, Huan
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Notes Funding information
This study received funding from National Key R&D Program of China, Grant/Award Number: NO. 2018YFD0200700; National Maize Production System in China, Grant/Award Number: CARS‐02‐15; Chongqing Special Postdoctoral Science Foundation; and fundamental research funds from the Central Universities, Grant/Award Number: XDJK2020C069.
Xingbang Wang and Wushuai Zhang contributed equally to this work.
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2015; 33
2015; 32
2019; 246
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2016; 37
2005; 23
2016; 34
2005; 25
2017; 239
2014; 5
2014; 3
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2021; 752
2020; 9
2019; 25
2006; 26
2016; 87
2019; 116
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2013; 110
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2014; 9
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2021; 786
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Snippet Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated environmental...
Abstract Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated...
Abstract Small farms are the mainstay of maize production in China. Its productivity is relatively low despite large farm inputs and the associated...
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SubjectTerms Acidic soils
Acidification
Agricultural production
Agriculture
Budgets
Consumption
Corn
Crop production
Crops
Ecological footprint
Economic models
Economic reform
Economics
Ecosystems
Efficiency
Environmental impact
environmental impacts
Eutrophication
Farm buildings
Farmers
Farming systems
Farms
Fertilizers
Food security
Greenhouse gases
life cycle assessment
maize yield
Partnerships
Pesticides
Precipitation
Productivity
Public private partnerships
R&D
Regions
Research & development
Small farms
smallholder farmer
Soil acidification
Superhigh frequencies
Sustainability
Technological change
technology package
Tropical climate
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Title Public–private partnership model for intensive maize production in China: A synergistic strategy for food security and ecosystem economic budget
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