Global Research Trends on the Role of Soil Erosion in Carbon Cycling Under Climate Change: A Bibliometric Analysis (1994–2024)

Against the backdrop of multifaceted strategies to combat climate change, understanding soil erosion’s role in carbon cycling is critical due to terrestrial carbon pool vulnerability. This study integrates bibliometric methods with visualization tools (CiteSpace, VOSviewer) to analyze 3880 Web of Science core publications (1994–2024, inclusive), constructing knowledge graphs and forecasting trends. The results show exponential publication growth, shifting from slow development (1994–2011) to rapid expansion (2012–2024), aligning with international climate policy milestones. The Chinese Academy of Sciences led productivity (519 articles), while the US demonstrated major influence (H-index 117; 52,297 citations), creating a China–US bipolar research pattern. It was also found that Dutch journals dominate this research field. A keyword analysis revealed a shift from erosion-driven carbon transport to ecosystem service assessments. Emerging hotspots include microbial community regulation, climate–erosion feedback, and model–policy integration, though developing country collaboration remains limited. Future research should prioritize isotope tracing, multiscale modeling, and studies in ecologically vulnerable regions to enhance global soil carbon management. This study provides a novel analytical framework and forward-looking perspective for the soil erosion research on soil carbon cycling, serving as an extension of climate change mitigation strategies.

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Publication Details

Journal
Atmosphere
Published
2025-08-04
DOI
https://doi.org/10.3390/atmos16080934
Citations
1
Primary Topic
Soil erosion and sediment transport
Type
article
Field-Weighted Citation Impact
1.19

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article

Global Research Trends on the Role of Soil Erosion in Carbon Cycling Under Climate Change: A Bibliometric Analysis (1994–2024)

Xiong Wu, Yang Zhao, Xiao Zhang, Yongfu Li et al.
1 citations
Atmosphere
Soil erosion and sediment transport
1.19
article

Global Research Trends on the Role of Soil Erosion in Carbon Cycling Under Climate Change: A Bibliometric Analysis (1994–2024)

Xiong Wu, Yang Zhao, Xiao Zhang, Yongfu Li, Xiaolin Yin, Liping Su
article en
1 citations

Abstract

Against the backdrop of multifaceted strategies to combat climate change, understanding soil erosion’s role in carbon cycling is critical due to terrestrial carbon pool vulnerability. This study integrates bibliometric methods with visualization tools (CiteSpace, VOSviewer) to analyze 3880 Web of Science core publications (1994–2024, inclusive), constructing knowledge graphs and forecasting trends. The results show exponential publication growth, shifting from slow development (1994–2011) to rapid expansion (2012–2024), aligning with international climate policy milestones. The Chinese Academy of Sciences led productivity (519 articles), while the US demonstrated major influence (H-index 117; 52,297 citations), creating a China–US bipolar research pattern. It was also found that Dutch journals dominate this research field. A keyword analysis revealed a shift from erosion-driven carbon transport to ecosystem service assessments. Emerging hotspots include microbial community regulation, climate–erosion feedback, and model–policy integration, though developing country collaboration remains limited. Future research should prioritize isotope tracing, multiscale modeling, and studies in ecologically vulnerable regions to enhance global soil carbon management. This study provides a novel analytical framework and forward-looking perspective for the soil erosion research on soil carbon cycling, serving as an extension of climate change mitigation strategies.

AtmosphereVol. 16(8)
China University of Geosciences (Beijing) (CN), China Institute of Water Resources and Hydropower Research (CN)
China Institute of Water Resources and Hydropower Research, State Key Laboratory of Simulation and Regulation of Water Cycle in River Basin
Climate action
Openalex Percentile: Top 18%
Soil erosion and sediment transport
1.19
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