Regional difference and prevention strategy of farmland erosion induced by extreme rainstorms in the Loess area and Rocky mountain area of Northern China

Elucidating the mechanism of soil erosion caused by extreme rainstorms could improve agroecosystems' resilience to the extreme climate. However, less attention has been paid to the regional difference of soil erosion during extreme rainstorms through multiple field investigations. Using six fie...

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Veröffentlicht in:Earth surface processes and landforms 2024-07, Vol.49 (9), p.2704-2722
Hauptverfasser: Zhang, Liang, Liu, Yihang, Dong, Yunyun, Liu, Yuanhao, Jidai, Jingqi, Jiao, Juying, Liu, Baoyuan, Chen, Hao, Han, Jianqiao
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container_end_page 2722
container_issue 9
container_start_page 2704
container_title Earth surface processes and landforms
container_volume 49
creator Zhang, Liang
Liu, Yihang
Dong, Yunyun
Liu, Yuanhao
Jidai, Jingqi
Jiao, Juying
Liu, Baoyuan
Chen, Hao
Han, Jianqiao
description Elucidating the mechanism of soil erosion caused by extreme rainstorms could improve agroecosystems' resilience to the extreme climate. However, less attention has been paid to the regional difference of soil erosion during extreme rainstorms through multiple field investigations. Using six field surveys of extreme rainstorms, soil erosion and its driving mechanism were investigated on farmland in the Loess area and the Rocky mountain area. Conclusions are as follows: (1) Farmland was severely eroded in comparison with abandoned land and forest–grass land. The erosion modulus of farmland in the Loess area (51 606.51 t/km2) was greater than that in the Rocky mountain area (2582.75 t/km2). (2) In both the Loess area and the Rocky mountain area, the main erosion types on sloped cropland and terraced land were rills/gullies and embankment failure, respectively. Terracing is an appropriate measure that can effectively control farmland erosion in rainstorm events. (3) Concentrated flow is a major driver of soil erosion, with nearly all rills/gullies occurring in the flow paths. Drainage measures can prevent the formation of concentrated flow, weakening rills/gullies erosion in farmland. (4) Building bio‐embankment, planting high‐coverage crops, and implementing local protection measures could reduce the farmland erosion influenced by extremely heavy rainfall. Combining drainage and agronomic measures is the common strategy to combat extreme rainstorm events for reducing farmland erosion in the two regions. These results can be applied to improve the ability of agricultural systems to cope with extreme rainstorms. Farmland experienced severe erosion during extreme rainstorm events in the Loess area and the Rocky Mountain area. Concentrated flow is the main factor causing soil erosion under the rainstorms, and combining drainage and agronomic management is the common strategy to combat extreme rainstorm for reducing farmland erosion in the Loess area and the Rocky Mountain area.
doi_str_mv 10.1002/esp.5851
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Drainage measures can prevent the formation of concentrated flow, weakening rills/gullies erosion in farmland. (4) Building bio‐embankment, planting high‐coverage crops, and implementing local protection measures could reduce the farmland erosion influenced by extremely heavy rainfall. Combining drainage and agronomic measures is the common strategy to combat extreme rainstorm events for reducing farmland erosion in the two regions. These results can be applied to improve the ability of agricultural systems to cope with extreme rainstorms. Farmland experienced severe erosion during extreme rainstorm events in the Loess area and the Rocky Mountain area. 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However, less attention has been paid to the regional difference of soil erosion during extreme rainstorms through multiple field investigations. Using six field surveys of extreme rainstorms, soil erosion and its driving mechanism were investigated on farmland in the Loess area and the Rocky mountain area. Conclusions are as follows: (1) Farmland was severely eroded in comparison with abandoned land and forest–grass land. The erosion modulus of farmland in the Loess area (51 606.51 t/km2) was greater than that in the Rocky mountain area (2582.75 t/km2). (2) In both the Loess area and the Rocky mountain area, the main erosion types on sloped cropland and terraced land were rills/gullies and embankment failure, respectively. Terracing is an appropriate measure that can effectively control farmland erosion in rainstorm events. (3) Concentrated flow is a major driver of soil erosion, with nearly all rills/gullies occurring in the flow paths. Drainage measures can prevent the formation of concentrated flow, weakening rills/gullies erosion in farmland. (4) Building bio‐embankment, planting high‐coverage crops, and implementing local protection measures could reduce the farmland erosion influenced by extremely heavy rainfall. Combining drainage and agronomic measures is the common strategy to combat extreme rainstorm events for reducing farmland erosion in the two regions. These results can be applied to improve the ability of agricultural systems to cope with extreme rainstorms. Farmland experienced severe erosion during extreme rainstorm events in the Loess area and the Rocky Mountain area. 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subjects Abandoned land
Agricultural ecosystems
Agricultural land
agronomic measures
Climatic extremes
Drainage
drainage measures
Drainage systems
Embankments
Erosion control
extreme rainstorms
Extreme values
Extreme weather
Farming systems
farmland erosion
Field investigations
Field tests
Flow paths
Gullies
Gully erosion
Heavy rainfall
land‐use types
Mountain regions
Mountainous areas
Mountains
Plant protection
Rain
Rainfall
Rainstorms
Regional differences
Rills
Soil erosion
Soil improvement
Soil investigations
title Regional difference and prevention strategy of farmland erosion induced by extreme rainstorms in the Loess area and Rocky mountain area of Northern China
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