Phosphorus availability on the early Earth and the impacts of life

被引:0
作者
Craig R. Walton
Sophia Ewens
John D. Coates
Ruth E. Blake
Noah J. Planavsky
Christopher Reinhard
Pengcheng Ju
Jihua Hao
Matthew A. Pasek
机构
[1] University of Cambridge,Department of Earth Sciences
[2] University of California Berkeley,Department of Plant and Microbial Biology
[3] Yale University,Department of Earth & Planetary Sciences
[4] Georgia Tech,School of Earth and Atmospheric Sciences
[5] Northwest University,State Key Laboratory of Continental Dynamics and Shaanxi Key Laboratory of Early Life and Environment, Department of Geology
[6] University of Science and Technology of China,CAS Key Laboratory of Crust
[7] University of Science and Technology of China,Mantle Materials and Environments, School of Earth and Space Sciences
[8] University of South Florida,CAS Center for Excellence in Comparative Planetology
来源
Nature Geoscience | 2023年 / 16卷
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摘要
Phosphorus (P) is critical to modern biochemical functions and can control ecosystem growth. It was presumably important as a reagent in prebiotic chemistry. However, on the early Earth, P sources may have consisted primarily of poorly soluble calcium phosphates, which may have rendered phosphate as a minimally available nutrient or reagent if these minerals were the sole source. Here, we review aqueous P availability on the early Earth (>2.5 Gyr ago), considering both mineral sources and geochemical sinks relevant to its solvation, and activation by abiotic and biological pathways. Phosphorus on Earth’s early surface would have been present as a mixture of phosphate minerals, as a minor element in silicate minerals, and in reactive, reduced phases from accreted dust, meteorites and asteroids. These P sources would have weathered and plausibly furnished the prebiotic Earth with abundant and potentially reactive P. After the origin of a biosphere, life evolved to draw on not just reactive available P sources, but also insoluble and unreactive sources. The rise of an ecosystem dependent on this element at some point forged a P-limited biosphere, with evolutionary stress forcing the efficient extraction and recycling of P from both abiotic and biotic sources and sinks.
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页码:399 / 409
页数:10
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