Negative effects of urbanization on agricultural soil easily oxidizable organic carbon down the profile of the Chengdu Plain, China
Soil easily oxidizable organic carbon (EOC) is directly related to CO2 density; dynamics in subsurface EOC have been observed globally in relation to rapid urbanization. However, in the context of rapid urbanization, the factors related to EOC and the response of the EOC pool to urbanization down th...
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Published in | Land degradation & development Vol. 31; no. 3; pp. 404 - 416 |
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Main Authors | , , , , , , , , , , , , , |
Format | Journal Article |
Language | English |
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Abstract | Soil easily oxidizable organic carbon (EOC) is directly related to CO2 density; dynamics in subsurface EOC have been observed globally in relation to rapid urbanization. However, in the context of rapid urbanization, the factors related to EOC and the response of the EOC pool to urbanization down the profile remain elusive. The aim of the current paper is to investigate possible changes in the distribution of EOC over the soil profile and the impact of land use, socioeconomic, and natural factors on these. The study used samples from 182 soil profiles (0–100 cm) taken in the peri‐urban areas of the megacity Chengdu (a typical megacity with rapid urbanization). Main drivers of changes in soil EOC were analyzed by using spatial and regression analyses. Closer to the centre of the city, soil EOC levels were lower and land‐use factors and socioeconomic factors contributed more to explaining variation in EOC levels in the 0–40‐cm layer, whereas natural factors were most important at larger distance from the city. The effect of land‐use factors and socioeconomic factors on EOC reached down to 60‐cm depths. Moreover, an estimated 20% loss of EOC stock was observed close to the city in comparison with the surroundings, suggesting that the rapid process of urbanization was accompanied by a loss of EOC stock down the profile to depths of 60 cm, and the negative effects on EOC stock became more intensive as the distance to the city decreased. |
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AbstractList | Soil easily oxidizable organic carbon (EOC) is directly related to CO₂ density; dynamics in subsurface EOC have been observed globally in relation to rapid urbanization. However, in the context of rapid urbanization, the factors related to EOC and the response of the EOC pool to urbanization down the profile remain elusive. The aim of the current paper is to investigate possible changes in the distribution of EOC over the soil profile and the impact of land use, socioeconomic, and natural factors on these. The study used samples from 182 soil profiles (0–100 cm) taken in the peri‐urban areas of the megacity Chengdu (a typical megacity with rapid urbanization). Main drivers of changes in soil EOC were analyzed by using spatial and regression analyses. Closer to the centre of the city, soil EOC levels were lower and land‐use factors and socioeconomic factors contributed more to explaining variation in EOC levels in the 0–40‐cm layer, whereas natural factors were most important at larger distance from the city. The effect of land‐use factors and socioeconomic factors on EOC reached down to 60‐cm depths. Moreover, an estimated 20% loss of EOC stock was observed close to the city in comparison with the surroundings, suggesting that the rapid process of urbanization was accompanied by a loss of EOC stock down the profile to depths of 60 cm, and the negative effects on EOC stock became more intensive as the distance to the city decreased. Soil easily oxidizable organic carbon (EOC) is directly related to CO2 density; dynamics in subsurface EOC have been observed globally in relation to rapid urbanization. However, in the context of rapid urbanization, the factors related to EOC and the response of the EOC pool to urbanization down the profile remain elusive. The aim of the current paper is to investigate possible changes in the distribution of EOC over the soil profile and the impact of land use, socioeconomic, and natural factors on these. The study used samples from 182 soil profiles (0–100 cm) taken in the peri‐urban areas of the megacity Chengdu (a typical megacity with rapid urbanization). Main drivers of changes in soil EOC were analyzed by using spatial and regression analyses. Closer to the centre of the city, soil EOC levels were lower and land‐use factors and socioeconomic factors contributed more to explaining variation in EOC levels in the 0–40‐cm layer, whereas natural factors were most important at larger distance from the city. The effect of land‐use factors and socioeconomic factors on EOC reached down to 60‐cm depths. Moreover, an estimated 20% loss of EOC stock was observed close to the city in comparison with the surroundings, suggesting that the rapid process of urbanization was accompanied by a loss of EOC stock down the profile to depths of 60 cm, and the negative effects on EOC stock became more intensive as the distance to the city decreased. Soil easily oxidizable organic carbon (EOC) is directly related to CO 2 density; dynamics in subsurface EOC have been observed globally in relation to rapid urbanization. However, in the context of rapid urbanization, the factors related to EOC and the response of the EOC pool to urbanization down the profile remain elusive. The aim of the current paper is to investigate possible changes in the distribution of EOC over the soil profile and the impact of land use, socioeconomic, and natural factors on these. The study used samples from 182 soil profiles (0–100 cm) taken in the peri‐urban areas of the megacity Chengdu (a typical megacity with rapid urbanization). Main drivers of changes in soil EOC were analyzed by using spatial and regression analyses. Closer to the centre of the city, soil EOC levels were lower and land‐use factors and socioeconomic factors contributed more to explaining variation in EOC levels in the 0–40‐cm layer, whereas natural factors were most important at larger distance from the city. The effect of land‐use factors and socioeconomic factors on EOC reached down to 60‐cm depths. Moreover, an estimated 20% loss of EOC stock was observed close to the city in comparison with the surroundings, suggesting that the rapid process of urbanization was accompanied by a loss of EOC stock down the profile to depths of 60 cm, and the negative effects on EOC stock became more intensive as the distance to the city decreased. Soil easily oxidizable organic carbon (EOC) is directly related to CO2 density; dynamics in subsurface EOC have been observed globally in relation to rapid urbanization. However, in the context of rapid urbanization, the factors related to EOC and the response of the EOC pool to urbanization down the profile remain elusive. The aim of the current paper is to investigate possible changes in the distribution of EOC over the soil profile and the impact of land use, socioeconomic, and natural factors on these. The study used samples from 182 soil profiles (0–100 cm) taken in the peri‐urban areas of the megacity Chengdu (a typical megacity with rapid urbanization). Main drivers of changes in soil EOC were analyzed by using spatial and regression analyses. Closer to the centre of the city, soil EOC levels were lower and land‐use factors and socioeconomic factors contributed more to explaining variation in EOC levels in the 0–40‐cm layer, whereas natural factors were most important at larger distance from the city. The effect of land‐use factors and socioeconomic factors on EOC reached down to 60‐cm depths. Moreover, an estimated 20% loss of EOC stock was observed close to the city in comparison with the surroundings, suggesting that the rapid process of urbanization was accompanied by a loss of EOC stock down the profile to depths of 60 cm, and the negative effects on EOC stock became more intensive as the distance to the city decreased. |
Author | Yuan, Shu Ge, Jinru Luo, Youlin Tang, Xiaoyan Yu, Xuelian Tao, Qi Li, Bing Stomph, Tjeerd‐Jan Peng, Yueyue Xu, Qiang Li, Qiquan Yang, Juan Zheng, Gangxun Wang, Changquan |
Author_xml | – sequence: 1 givenname: Youlin orcidid: 0000-0001-8592-8657 surname: Luo fullname: Luo, Youlin organization: Sichuan Agricultural University – sequence: 2 givenname: Qiquan orcidid: 0000-0001-9735-0370 surname: Li fullname: Li, Qiquan organization: Sichuan Agricultural University – sequence: 3 givenname: Changquan surname: Wang fullname: Wang, Changquan email: w.changquan@163.com organization: Sichuan Agricultural University – sequence: 4 givenname: Bing surname: Li fullname: Li, Bing organization: Sichuan Agricultural University – sequence: 5 givenname: Tjeerd‐Jan orcidid: 0000-0001-5984-1523 surname: Stomph fullname: Stomph, Tjeerd‐Jan organization: Wageningen University and Research – sequence: 6 givenname: Juan surname: Yang fullname: Yang, Juan organization: Sichuan Agricultural University – sequence: 7 givenname: Qi surname: Tao fullname: Tao, Qi organization: Sichuan Agricultural University – sequence: 8 givenname: Shu surname: Yuan fullname: Yuan, Shu organization: Sichuan Agricultural University – sequence: 9 givenname: Xiaoyan surname: Tang fullname: Tang, Xiaoyan organization: Sichuan Agricultural University – sequence: 10 givenname: Jinru surname: Ge fullname: Ge, Jinru organization: Sichuan Agricultural University – sequence: 11 givenname: Xuelian surname: Yu fullname: Yu, Xuelian organization: Sichuan Agricultural University – sequence: 12 givenname: Yueyue surname: Peng fullname: Peng, Yueyue organization: Sichuan Agricultural University – sequence: 13 givenname: Qiang surname: Xu fullname: Xu, Qiang organization: Sichuan Agricultural University – sequence: 14 givenname: Gangxun surname: Zheng fullname: Zheng, Gangxun organization: Sichuan Agricultural University |
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Snippet | Soil easily oxidizable organic carbon (EOC) is directly related to CO2 density; dynamics in subsurface EOC have been observed globally in relation to rapid... Soil easily oxidizable organic carbon (EOC) is directly related to CO 2 density; dynamics in subsurface EOC have been observed globally in relation to rapid... Soil easily oxidizable organic carbon (EOC) is directly related to CO₂ density; dynamics in subsurface EOC have been observed globally in relation to rapid... |
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SubjectTerms | Agricultural land agricultural soils Carbon dioxide China cities easily oxidized organic carbon impact factors Land use Megacities negative effects Organic carbon rapid urbanization Regression analysis Social factors Socioeconomic data Socioeconomic factors Socioeconomics Soil analysis Soil investigations soil profile Soil profiles Soil properties Soils Spatial analysis Urban areas Urbanization |
Title | Negative effects of urbanization on agricultural soil easily oxidizable organic carbon down the profile of the Chengdu Plain, China |
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