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August 20, 20250 citationsOpen Access

Pseudo-panspermia of Phosphorus species on the Early Earth

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TFTian FengAGAsbel GonzalezBMBenjamin Mayfield

Key Points

  • Meteorites may deliver diverse phosphorus species to early Earth, enhancing possibilities for prebiotic chemistry and origins of life.
  • In solar system bodies, phosphorus occurs in various compounds, affecting its availability for early Earth environments and potential biological processes.
  • Review of different meteorite types reveals distinct phosphorus composition, linking their study to pseudo panspermia and the emergence of biomolecules.
  • Understanding prebiotic chemistry requires exploring how delivered phosphorus species contribute to the formation of essential biomolecules on early Earth.

Abstract

In the Earth system, Phosphorus (P) does not form a single phase, but mostly combines into compounds forming multiple minerals. Phosphate (P+5) is the majority P species in the Earth’s crust. Phosphate is the completely oxidized P species, while P similarly contains some other reduced species like hypophosphate (P4+), phosphite (P3+), hypophosphite (P1+) and phosphine (P3-). Due to these reduced P species being reactive with oxygen, it’s hard to find these reduced P compounds in the Earth’s lithosphere. However, P in the solar system, especially in meteorites, contains more diverse compounds than in a typical Earth system. Moreover, different types of meteorites may have different amounts and types of P species, included in different types of minerals. One mechanism for needed reduced P species to get to the early earth would be meteoric delivery. The idea of pseudo panspermia is that the chemicals needed for the origins of life are brought to planets by comets and meteors, specifically carbon-based molecules. Here we wish to consider the simple step of replacing carbon-based molecules with P species in considering pseudo panspermia. It is important to consider the inventory of various P species in our solar system where they are found and if they could be delivered to the early Earth. This would provide a catalog to think about prebiotic chemistry in terms of pseudo panspermia and P. In this paper, we provide a review of P species in different types of meteorites. We further summarize how P may be available in terms of pseudo-panspermia and the origin of biomolecules.

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Cite This Study

Feng et al. (2025) studied this question.

synapsesocial.com/papers/68af55d8ad7bf08b1eadc74ahttps://doi.org/10.26434/chemrxiv-2025-xvktb
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Various inorganic phosphorus species in prebiotic Earth and extraterrestrial settings2026
  2. 2Meteoritic and hydrothermal sources of reduced phosphorus in the early Archean2026
  3. 3Magmatic and thermally produced reactive phosphorus 3.2 billion years ago and its implications for early life2025
  4. 4Phosphorus availability from olivine for biospheres2024 · 1 citations
  5. 5Mafic-ultramafic igneous rocks as a source of reactive phosphorus for the origin of life2026 · 1 citations