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Soil Phosphorus Transport in Response to Climate Change at Mid‐High Latitudes Under Intensive Agriculture

Bibliographic Data

ID21648626
AuthorsHezhen Lou (0000-0001-5921-9945, College of Water Sciences Beijing Normal University Beijing China), Baichi Zhou (0009-0005-8047-8120, College of Water Sciences Beijing Normal University Beijing China), Xiaoyu Ren (0000-0002-5144-1098, Beijing Weather Modification Center Beijing China), Xijin Wu (Center for Promotion of Water Conservation Ministry of Water Resources Beijing China), Shengtian Yang (0000-0003-0255-0471, College of Water Sciences Beijing Normal University Beijing China), Sihan Liu (0000-0002-6020-0720, Satellite Application Center for Ecology and Environment, corresponding author), Fanghua Hao (0009-0007-7686-1359, College of Water Sciences Beijing Normal University Beijing China), Aiping Feng (0000-0002-1455-1298, Satellite Application Center for Ecology and Environment), Qi Wang (0000-0003-0464-2118, Proficiency Skill Appraisal and Guidance Center of Natural Resources Ministry Beijing China)
Year2024
Volume35
Issue17
Pages5327-5340
Publication date2024-11-01
Peer ReviewedYes
Open AccessYes
TypeARTICLE
VenueLand Degradation and Development (JOURNAL)
Journal identifiersISSN: 1085-3278 • E-ISSN: 1099-145X
PublisherWiley (PUBLISHER • GB)
DOI10.1002/ldr.5299
OpenAlexW4403071256
LanguageEN
References cited63

Phosphorus (P) is an important soil element for sustaining plant growth and the integrity of terrestrial ecosystems, and the soil P cycle is strongly influenced by climate change and agricultural activities. However, little is known about how soil P has evolved with climate change and intensive agriculture at mid‐high latitudes, where the soil P cycle is sensitive to climate change. To answer this question, an ecohydrological model (EcoHAT‐P) driven by remote sensing data was used in this study to calculate soil P concentration and loss and was calibrated and validated using 272 soil samples collected in the Sanjiang Plain, a typical mid‐high latitude region with a long history of strong agricultural activity. Soil P concentration and loss, and plant uptake of soil P, were analyzed for the years 2000–2019 and 2020–2040. The results showed that soil total P, soil P loss, and plant P uptake all increased under intensive agriculture. The soil P cycle at mid‐high latitudes was more sensitive to temperature than to precipitation. Increased temperature would increase soil P loss and plant P uptake by 93.94% and 8.16%, respectively, and soil legacy P from intensive agriculture would become the main source even if external P inputs were eliminated. The results highlight the evolution of soil P transport at mid‐high latitudes and clarify the response of soil P cycle to climate change under intensive agriculture

Agriculture · Agroforestry · Agronomy · Archaeology · Climate change · Geography · High latitude · Latitude · Phosphorus · Chemistry · Environmental Science · Soil and Water Nutrient Dynamics · Soil Carbon and Nitrogen Dynamics · Soil erosion and sediment transport · Geology · Oceanography

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