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Evaluation of wind erosion control practices at a photovoltaic power station within a sandy area of northwest, China

Bibliographic Data

ID21648687
AuthorsChun Wang (0009-0002-7869-0892, Institute of Soil and Water Conservation Northwest A & F University Yangling PR China, corresponding author), Robert L Hill (0000-0001-5857-6908, Department of Environmental Science and Technology University of Maryland College Park Maryland USA), Chongfeng Bu (0000-0002-5839-7229, Institute of Soil and Water Conservation Northwest A & F University Yangling PR China, corresponding author), Bingyin Li (Institute of Soil and Water Conservation Northwest A & F University Yangling PR China), Fang Yuan (0000-0003-0469-003X, Institute of Soil and Water Conservation Northwest A & F University Yangling PR China), Yanzhe Yang (Institute of Soil and Water Conservation Chinese Academy of Sciences and Ministry of Water Resources Yangling PR China), Senpeng Yuan (Institute of Soil and Water Conservation Northwest A & F University Yangling PR China), Zhenshi Zhang (Urban rural development & environmental protection engineering div Northwest Engineering Corporation Limited of Power China Xi'an PR China), Yongxiang Cao (Urban rural development & environmental protection engineering div Northwest Engineering Corporation Limited of Power China Xi'an PR China), Kankan Zhang (0000-0001-5082-9915, Engineering department Shaanxi Lvtuo Eco‐environment Engineering Co., Ltd Yangling PR China)
Year2021
Volume32
Issue4
Pages1854-1872
Publication date2021-02-28
Peer ReviewedYes
Open AccessYes
TypeARTICLE
VenueLand Degradation and Development (JOURNAL)
Journal identifiersISSN: 1085-3278 • E-ISSN: 1099-145X
PublisherWiley (PUBLISHER • GB)
DOI10.1002/ldr.3839
OpenAlexW3109848935
LanguageEN
Citations received3
References cited72

The widespread construction of photovoltaic power stations within northwest China poses an environmental threat because of severe increased wind erosion and land degradation. Engineering, plant, and biocrust treatments were evaluated in this study for their effectiveness in the reduction of wind erosion. The placement of solar panels caused wind speed variation and resulted in distinct abrasion and deposition zones between the rows of the solar panels and the formation of deflation zones under the solar panels. Combined treatments (gravel and red clay mulch were applied within the abrasion and deposition zones, respectively) and moss‐crust were the optimal choices within the engineering and biocrust treatments, respectively. We found that for engineering treatments, the combined procedures led to treatments had sand transport rate reductions of 87%, while the straw checkerboard, gravel, and red clay treatments gave reductions of 51, 78, and 74%, respectively. Within the biocrust treatments, the moss‐crust decreased the sand transport rates and the sand erosion–deposit budget by 71 and 114%, respectively, while the cyanobacteria crust caused reductions of 65 and 109%, respectively, in comparison to the control. Both plant treatments decreased the sand transport rates and the sand erosion–deposit budgets, but were inferior to other optimal treatments with the best plant treatment dependent on the placement pattern used for plant establishment. All the treatments had effects on reducing wind erosion, and we strongly recommend the use of moss‐crust and combined treatments in the deflation zones and between the rows of the solar panels, respectively, to significantly reduce the severe wind erosion occurring at these photovoltaic power stations located in sandy areas

Aeolian processes · Agronomy · Crust · Erosion · Erosion control · Geochemistry · Geomorphology · Geotechnical engineering · Moss · Mulch · Photovoltaic system · Sediment · Wind speed · Aeolian processes and effects · Biocrusts and Microbial Ecology · Engineering · Environmental Science · Lichen and fungal ecology · Ecology · Geology

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Unique citing works3
Citations per year3
Citation span2026 - 2026 (1)
Citation velocitycurrent
Highly citedNo
Citation typesNeutral: 3

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