World Regional Studies ›› 2024, Vol. 33 ›› Issue (4): 73-87.DOI: 10.3969/j.issn.1004-9479.2024.04.20220098
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Chuanlong CHEN1(), Lianhong QIU2
Received:
2022-02-15
Revised:
2022-04-22
Online:
2024-04-15
Published:
2024-04-24
作者简介:
陈传龙(1994—),男,博士,主要研究方向为农业经济,E-mail:1824122511@qq.com。根据《第二次全国污染源普查公报》显示,2017年水污染排放物中农业源化学需氧量(COD)、总氮(TN)、总磷(TP)排放量分别为1 067.13万吨、141.49万吨、21.20万吨,分别占到了总水污染排放量的49.77%、46,52%和67.22%。
基金资助:
Chuanlong CHEN, Lianhong QIU. Transfer of agricultural implied water pollution and responsibility sharing among regions in China[J]. World Regional Studies, 2024, 33(4): 73-87.
陈传龙, 邱联鸿. 中国区域间农业隐含水污染转移及责任分担[J]. 世界地理研究, 2024, 33(4): 73-87.
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URL: https://sjdlyj.ecnu.edu.cn/EN/10.3969/j.issn.1004-9479.2024.04.20220098
变量 | 中间需求 | 最终需求 | 出口 | 总产出 | ||||||
---|---|---|---|---|---|---|---|---|---|---|
中间投入 | ||||||||||
进口 | ||||||||||
增加值 | ||||||||||
总投入 | ||||||||||
COD |
Tab.1 Water pollution economic multi-regional input-output table
变量 | 中间需求 | 最终需求 | 出口 | 总产出 | ||||||
---|---|---|---|---|---|---|---|---|---|---|
中间投入 | ||||||||||
进口 | ||||||||||
增加值 | ||||||||||
总投入 | ||||||||||
COD |
排名 | 消费侧净转移路径 | 转移量 /万吨 | 收入侧净转移路径 | 转移量 /万吨 |
---|---|---|---|---|
1 | 黑龙江→广东 | 11.38 | 黑龙江→江苏 | 1.24 |
2 | 河北→广东 | 6.31 | 黑龙江→吉林 | 1.13 |
3 | 辽宁→广东 | 5.37 | 黑龙江→湖南 | 0.90 |
4 | 黑龙江→上海 | 4.87 | 黑龙江→陕西 | 0.68 |
5 | 黑龙江→山东 | 4.82 | 黑龙江→河南 | 0.66 |
6 | 黑龙江→浙江 | 4.55 | 辽宁→江苏 | 0.63 |
7 | 河南→广东 | 3.61 | 黑龙江→广西 | 0.56 |
8 | 湖南→广东 | 3.45 | 黑龙江→贵州 | 0.53 |
9 | 黑龙江→安徽 | 3.32 | 黑龙江→安徽 | 0.52 |
10 | 内蒙古→广东 | 3.29 | 河北→江苏 | 0.51 |
11 | 新疆→广东 | 3.20 | 黑龙江→上海 | 0.48 |
12 | 黑龙江→湖北 | 2.95 | 河南→江苏 | 0.46 |
13 | 吉林→广东 | 2.94 | 黑龙江→云南 | 0.44 |
14 | 黑龙江→河南 | 2.89 | 河南→陕西 | 0.42 |
15 | 黑龙江→江苏 | 2.71 | 内蒙古→江苏 | 0.42 |
16 | 河北→上海 | 2.66 | 河北→陕西 | 0.40 |
17 | 河北→浙江 | 2.61 | 山东→广西 | 0.39 |
18 | 河北→山东 | 2.57 | 辽宁→吉林 | 0.38 |
19 | 安徽→广东 | 2.53 | 山东→河北 | 0.37 |
20 | 内蒙古→浙江 | 2.46 | 广东→江苏 | 0.37 |
21 | 辽宁→上海 | 2.36 | 河南→上海 | 0.35 |
22 | 黑龙江→重庆 | 2.35 | 安徽→江苏 | 0.35 |
23 | 辽宁→浙江 | 2.23 | 安徽→上海 | 0.34 |
24 | 河南→浙江 | 2.20 | 黑龙江→浙江 | 0.34 |
25 | 辽宁→山东 | 2.04 | 山东→陕西 | 0.34 |
26 | 黑龙江→北京 | 2.00 | 广东→湖南 | 0.33 |
27 | 河北→安徽 | 1.88 | 广东→广西 | 0.32 |
28 | 黑龙江→天津 | 1.87 | 广东→陕西 | 0.32 |
29 | 陕西→广东 | 1.76 | 安徽→陕西 | 0.32 |
30 | 内蒙古→湖北 | 1.72 | 山东→湖南 | 0.32 |
Tab.2 Top 30 paths for net transfer of agricultural water pollution in each province
排名 | 消费侧净转移路径 | 转移量 /万吨 | 收入侧净转移路径 | 转移量 /万吨 |
---|---|---|---|---|
1 | 黑龙江→广东 | 11.38 | 黑龙江→江苏 | 1.24 |
2 | 河北→广东 | 6.31 | 黑龙江→吉林 | 1.13 |
3 | 辽宁→广东 | 5.37 | 黑龙江→湖南 | 0.90 |
4 | 黑龙江→上海 | 4.87 | 黑龙江→陕西 | 0.68 |
5 | 黑龙江→山东 | 4.82 | 黑龙江→河南 | 0.66 |
6 | 黑龙江→浙江 | 4.55 | 辽宁→江苏 | 0.63 |
7 | 河南→广东 | 3.61 | 黑龙江→广西 | 0.56 |
8 | 湖南→广东 | 3.45 | 黑龙江→贵州 | 0.53 |
9 | 黑龙江→安徽 | 3.32 | 黑龙江→安徽 | 0.52 |
10 | 内蒙古→广东 | 3.29 | 河北→江苏 | 0.51 |
11 | 新疆→广东 | 3.20 | 黑龙江→上海 | 0.48 |
12 | 黑龙江→湖北 | 2.95 | 河南→江苏 | 0.46 |
13 | 吉林→广东 | 2.94 | 黑龙江→云南 | 0.44 |
14 | 黑龙江→河南 | 2.89 | 河南→陕西 | 0.42 |
15 | 黑龙江→江苏 | 2.71 | 内蒙古→江苏 | 0.42 |
16 | 河北→上海 | 2.66 | 河北→陕西 | 0.40 |
17 | 河北→浙江 | 2.61 | 山东→广西 | 0.39 |
18 | 河北→山东 | 2.57 | 辽宁→吉林 | 0.38 |
19 | 安徽→广东 | 2.53 | 山东→河北 | 0.37 |
20 | 内蒙古→浙江 | 2.46 | 广东→江苏 | 0.37 |
21 | 辽宁→上海 | 2.36 | 河南→上海 | 0.35 |
22 | 黑龙江→重庆 | 2.35 | 安徽→江苏 | 0.35 |
23 | 辽宁→浙江 | 2.23 | 安徽→上海 | 0.34 |
24 | 河南→浙江 | 2.20 | 黑龙江→浙江 | 0.34 |
25 | 辽宁→山东 | 2.04 | 山东→陕西 | 0.34 |
26 | 黑龙江→北京 | 2.00 | 广东→湖南 | 0.33 |
27 | 河北→安徽 | 1.88 | 广东→广西 | 0.32 |
28 | 黑龙江→天津 | 1.87 | 广东→陕西 | 0.32 |
29 | 陕西→广东 | 1.76 | 安徽→陕西 | 0.32 |
30 | 内蒙古→湖北 | 1.72 | 山东→湖南 | 0.32 |
省份 | 方案A | 方案B | 方案C | |||
---|---|---|---|---|---|---|
排放量 /万吨 | 排序 | 排放量 /万吨 | 排序 | 排放量 /万吨 | 排序 | |
山东 | 98.61 | 1 | 108.51 | 1 | 105.77 | 1 |
广东 | 74.02 | 2 | 48.42 | 9 | 73.89 | 2 |
黑龙江 | 64.85 | 3 | 92.42 | 2 | 62.09 | 4 |
河南 | 63.35 | 4 | 72.63 | 5 | 64.91 | 3 |
辽宁 | 61.57 | 5 | 75.73 | 4 | 62.05 | 5 |
河北 | 58.09 | 6 | 78.98 | 3 | 60.62 | 6 |
四川 | 48.49 | 7 | 48.44 | 8 | 48.94 | 7 |
湖北 | 47 | 8 | 40.36 | 11 | 46.45 | 9 |
湖南 | 44.33 | 9 | 54.82 | 7 | 47.11 | 8 |
内蒙古 | 39.39 | 10 | 56.24 | 6 | 41.01 | 10 |
吉林 | 33.42 | 11 | 46.32 | 10 | 35.36 | 12 |
安徽 | 33.24 | 12 | 33.75 | 14 | 33.72 | 13 |
江苏 | 32.35 | 13 | 36.07 | 12 | 37.42 | 11 |
浙江 | 26.69 | 14 | 17.11 | 19 | 28.3 | 14 |
新疆 | 25.72 | 15 | 33.79 | 13 | 26.54 | 15 |
江西 | 20.52 | 16 | 21.95 | 15 | 21.72 | 16 |
福建 | 18.19 | 17 | 18.27 | 18 | 19.59 | 17 |
山西 | 17.72 | 18 | 15.1 | 20 | 17.46 | 21 |
重庆 | 17.64 | 19 | 11.98 | 22 | 18.34 | 20 |
广西 | 17.09 | 20 | 20.69 | 16 | 19.08 | 19 |
陕西 | 16.89 | 21 | 20.02 | 17 | 19.36 | 18 |
上海 | 14.57 | 22 | 4.12 | 29 | 16.21 | 22 |
天津 | 13.13 | 23 | 9.59 | 24 | 13.75 | 23 |
北京 | 12.28 | 24 | 6.28 | 28 | 12.43 | 24 |
甘肃 | 10.88 | 25 | 12.89 | 21 | 11.06 | 26 |
云南 | 10.46 | 26 | 7.88 | 26 | 12 | 25 |
宁夏 | 7.95 | 27 | 8.73 | 25 | 8.07 | 28 |
海南 | 7.12 | 28 | 9.74 | 23 | 7.64 | 29 |
贵州 | 7.04 | 29 | 7.2 | 27 | 8.78 | 27 |
青海 | 2.89 | 30 | 2.13 | 30 | 2.97 | 30 |
西藏 | 0.75 | 31 | 0.51 | 31 | 0.82 | 31 |
Tab.3 Agricultural water pollution discharge responsibility of each province under different schemes
省份 | 方案A | 方案B | 方案C | |||
---|---|---|---|---|---|---|
排放量 /万吨 | 排序 | 排放量 /万吨 | 排序 | 排放量 /万吨 | 排序 | |
山东 | 98.61 | 1 | 108.51 | 1 | 105.77 | 1 |
广东 | 74.02 | 2 | 48.42 | 9 | 73.89 | 2 |
黑龙江 | 64.85 | 3 | 92.42 | 2 | 62.09 | 4 |
河南 | 63.35 | 4 | 72.63 | 5 | 64.91 | 3 |
辽宁 | 61.57 | 5 | 75.73 | 4 | 62.05 | 5 |
河北 | 58.09 | 6 | 78.98 | 3 | 60.62 | 6 |
四川 | 48.49 | 7 | 48.44 | 8 | 48.94 | 7 |
湖北 | 47 | 8 | 40.36 | 11 | 46.45 | 9 |
湖南 | 44.33 | 9 | 54.82 | 7 | 47.11 | 8 |
内蒙古 | 39.39 | 10 | 56.24 | 6 | 41.01 | 10 |
吉林 | 33.42 | 11 | 46.32 | 10 | 35.36 | 12 |
安徽 | 33.24 | 12 | 33.75 | 14 | 33.72 | 13 |
江苏 | 32.35 | 13 | 36.07 | 12 | 37.42 | 11 |
浙江 | 26.69 | 14 | 17.11 | 19 | 28.3 | 14 |
新疆 | 25.72 | 15 | 33.79 | 13 | 26.54 | 15 |
江西 | 20.52 | 16 | 21.95 | 15 | 21.72 | 16 |
福建 | 18.19 | 17 | 18.27 | 18 | 19.59 | 17 |
山西 | 17.72 | 18 | 15.1 | 20 | 17.46 | 21 |
重庆 | 17.64 | 19 | 11.98 | 22 | 18.34 | 20 |
广西 | 17.09 | 20 | 20.69 | 16 | 19.08 | 19 |
陕西 | 16.89 | 21 | 20.02 | 17 | 19.36 | 18 |
上海 | 14.57 | 22 | 4.12 | 29 | 16.21 | 22 |
天津 | 13.13 | 23 | 9.59 | 24 | 13.75 | 23 |
北京 | 12.28 | 24 | 6.28 | 28 | 12.43 | 24 |
甘肃 | 10.88 | 25 | 12.89 | 21 | 11.06 | 26 |
云南 | 10.46 | 26 | 7.88 | 26 | 12 | 25 |
宁夏 | 7.95 | 27 | 8.73 | 25 | 8.07 | 28 |
海南 | 7.12 | 28 | 9.74 | 23 | 7.64 | 29 |
贵州 | 7.04 | 29 | 7.2 | 27 | 8.78 | 27 |
青海 | 2.89 | 30 | 2.13 | 30 | 2.97 | 30 |
西藏 | 0.75 | 31 | 0.51 | 31 | 0.82 | 31 |
1 | 李秀芬,朱金兆,顾晓君,等.农业面源污染现状与防治进展.中国人口·资源与环境,2010,20(4):81-84. |
LI X, ZHU J, GU X, et al. Current situation and progress in prevention and control of agricultural non-point source pollution. China Population, Resources and Environment, 2010,20 (4): 81-84. | |
2 | 金书秦,沈贵银,魏珣,等.论农业面源污染的产生和应对.农业经济问题,2013,34(11):97-102. |
JIN S, SHEN G, WEI X, et al. On the generation and response of agricultural non-point source pollution. Agricultural Economic Issues, 2013,34(11): 97-102. | |
3 | 吴义根,冯开文,李谷成.我国农业面源污染的时空分异与动态演进.中国农业大学学报,2017,22(7):186-199. |
WU Y, FENG K, LI G. The spatiotemporal differentiation and dynamic evolution of agricultural non-point source pollution in China. Journal of China Agricultural University, 2017,22(7): 186-199. | |
4 | 丘雯文,钟涨宝,李兆亮,等.中国农业面源污染排放格局的时空特征.中国农业资源与区划,2019,40(1):26-34. |
QIU W, ZHONG Z, LI Z, et al. The spatiotemporal characteristics of agricultural non-point source pollution emission patterns in China. China Agricultural Resources and Regionalization, 2019,40(1): 26-34. | |
5 | 饶静,许翔宇,纪晓婷.我国农业面源污染现状、发生机制和对策研究.农业经济问题,2011,32(08):81-87. |
RAO J, XU X, JI X. Research on the current situation, mechanism and countermeasures of agricultural non point source pollution in China. Agricultural Economic Issues, 2011, 32(8): 81-87. | |
6 | 闵继胜,孔祥智.我国农业面源污染问题的研究进展.华中农业大学学报(社会科学版),2016(2):59-66. |
MIN J, KONG X. Research progress on agricultural non-point source pollution in China. Journal of Huazhong Agricultural University (Social Science Edition), 2016(2): 59-66. | |
7 | 李雪娇,邓金钱,安梦天.中国农业污染的理论与实证分析——政治经济学视角下的经验证明.西部论坛,2018,28(4):95-105. |
LI X, DENG Q, AN M. Theoretical and empirical analysis of agricultural pollution in China: Empirical evidence from the perspective of political economy. Western Forum, 2018,28(4): 95-105. | |
8 | 沈能,张斌.农业增长能改善环境生产率吗?——有条件"环境库兹涅茨曲线"的实证检验.中国农村经济,2015(7):17-30. |
SHEN N, ZHANG B. Can agricultural growth improve environmental productivity-- Empirical test of conditional "Environmental Kuznets Curve". China Rural Economy, 2015(7): 17-30. | |
9 | BAI J, LI Y, SUN W. Research on emission characteristics of agricultural non-point source pollution based on Kuznets fitting curve. Arabian Journal of Geosciences,2021,14(14): 1324. |
10 | 李守伟,李光超,李备友.农业污染背景下农业补贴政策的作用机理与效应分析.中国人口·资源与环境,2019,29(2):97-105. |
LI S, LI G, LI B. Analysis of the mechanism and effect of agricultural subsidy policies under the background of agricultural pollution. China Population, Resources and Environment, 2019, 29 (2): 97-105. | |
11 | 薛蕾,廖祖君,王理.城镇化与农业面源污染改善——基于农民收入结构调节作用的空间异质性分析.农村经济,2019(7):55-63. |
XUE L, LIAO Z, WANG L. Urbanization and improvement of agricultural non-point source pollution: spatial heterogeneity analysis based on the regulatory effect of farmers' income structure. Rural Economy, 2019(7): 55-63 | |
12 | 罗斯炫,何可,张俊飚.增产加剧污染?——基于粮食主产区政策的经验研究.中国农村经济,2020(1):108-131. |
LUO S, HE K, ZHANG J. Increasing production and exacerbating pollution--Empirical research based on policies in major grain producing areas. China Rural Economy, 2020 (1): 108-131. | |
13 | 秦天,彭珏,邓宗兵,等.环境分权、环境规制对农业面源污染的影响.中国人口·资源与环境,2021,31(2):61-70. |
QIN T, PENG J, DENG Z, et al. The impact of environmental decentralization and regulation on agricultural non-point source pollution. China Population, Resources and Environment, 2021, 31(2): 61-70. | |
14 | GAO X, LI B, JIANG S,et al. Can increasing scale efficiency curb agricultural nonpoint source pollution? International Journal of Environmental Research and Public Health,2021,18(16): 8798. |
15 | 栾健,韩一军.农村劳动力转移对化肥面源污染的影响研究——以冀鲁豫3省为例.中国农业资源与区划,2021,42(7):183-191. |
LUAN J, HAN Y. A study on the impact of rural labor transfer on fertilizer non-point source pollution: A case study of Hebei, Shandong, and Henan Provinces. China Agricultural Resources and Zoning, 2021, 42 (7): 183-191 | |
16 | ZHOU L, LI L, HUANG J. The river chief system and agricultural non-point source water pollution control in China. Journal of Integrative Agriculture,2021,20(5): 14. |
17 | 彭可茂,席利卿,彭开丽.中国环境规制与污染避难所区域效应——以大宗农产品为例.南开经济研究,2012(4):68-96. |
PENG K, XI L, PENG K. Regional effects of environmental regulations and pollution shelters in China: A case study of bulk agricultural products. Nankai Economic Research, 2012(4): 68-96. | |
18 | 沈坤荣,金刚,方娴.环境规制引起了污染就近转移吗?.经济研究,2017,52(5):44-59. |
SHEN K, JIN G, FANG X. Has environmental regulations caused pollution to be transferred nearby Economic Research, 2017,52(5): 44-59. | |
19 | ZHANG Z, ZHANG Z, ZHU K.Allocating carbon responsibility: The role of spatial production fragmentation.Energy Economics,2019. |
20 | ZHAI M, HUANG G, LIU H, et al.Three-perspective energy-carbon nexus analysis for developing China's policies of CO2-emission mitigation. Science of the Total Environment,2020,705: 135857. |
21 | WANG Y, YANG H, LIU J, et al. Analysis of multiple drivers of air pollution emissions in China via interregional trade. Journal of Cleaner Production, 2019, 244: 118507. |
22 | GUAN Y, HUANG G, LIU L,et al. Measurement of air-pollution inequality through a Three-perspective Accounting Model. Science of the Total Environment,2019,696: 133937. |
23 | 庞军,石媛昌,李梓瑄,等.基于MRIO模型的京津冀地区贸易隐含污染转移.中国环境科学,2017,37(8):3190-3200. |
PANG J, SHI Y, LI Z, et al. Trade implied pollution transfer in the Beijing Tianjin Hebei region based on the MRIO model. China Environmental Science, 2017,37(8): 3190-3200. | |
24 | WANG J, LI L, LI F, et al. Regional footprints and interregional interactions of chemical oxygen demand discharges in China. Resources, Conservation and Recycling, 2017,132: 386-397. |
25 | 孙才志,阎晓东.基于MRIO的中国省区和产业灰水足迹测算及转移分析.地理科学进展,2020,39(2):207-218. |
SUN C, YAN X. Grey water footprint calculation and transfer analysis of provinces and industries in China based on MRIO. Progress in Geographic Science, 2020,39 (2): 207-218. | |
26 | ZHAO D, QUAN L. Water pollution loads and shifting within China's inter-province trade. Journal of Cleaner Production,2020,259: 120879. |
27 | 李姣,李朗,李科.隐含水污染视角下的中国省际农业生态补偿标准研究.农业经济问题,2022(6):106-121. |
LI J, LI L, LI K. Research on inter provincial agricultural ecological compensation standards in China from the perspective of implicit water pollution. Agricultural Economic Issues, 2022(6):106-121. | |
28 | 李方一,刘卫东,唐志鹏.中国区域间隐含污染转移研究.地理学报,2013,68(6):791-801. |
LI F, LIU W, TANG Z. Research on implied pollution transfer between regions in China. Journal of Geography, 2013,68 (6): 791-801. | |
29 | 余晓泓,詹夏颜.基于收益原则的碳排放转移及中国碳排放责任研究.资源科学,2018,40(1):185-194. |
YU X, ZHAN X. Research on carbon emission transfer and China's carbon emission responsibility based on the benefit principle. Resource Science, 2018,40(1): 185-194. | |
30 | RODRIGUES J, DOMINGOS T. Consumer and producer environmental responsibility: Comparing two approaches. Ecological Economics, 2008, 66(2-3):533-546. |
31 | ZHENG H, ZHANG Z, WEI W, et al. Regional determinants of China's consumption-based emissions in the economic transition. Environmental Research Letters, 2020, 15(7): 1-14. |
32 | 张亚雄,齐舒畅.2002、2007年中国区域间投入产出表.北京:中国统计出版社,2012. |
ZHANG Y, QI S. 2002, 2007 China Regional Input Output Table. Beijing: China Statistical Publishing House, 2012. |
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