Constraints of Prebiotic Phosphorus Reactions Within Enceladus Hydrothermal Systems

Abstract Phosphorus (P) is a limiting element for prebiotic/biotic activity, and its availability constrains planetary habitability. Phosphates detected in Enceladus’ plume material could expand the range of potential prebiotic reactions possibly occurring within its subsurface ocean. However, for phosphorus chemistry to influence potential prebiotic chemistry, the environment must be favorable for the production of organophosphates and condensed phosphorus species. While mechanisms for the formation of organophosphates and polyphosphates exist within an early Earth context, these reactions rely on various environmental sources of phosphorus and are typically dependent on a low water activity environment to drive condensation or phosphorylation. For Enceladus, this would limit such reactions to within the core and/or hydrothermal systems, and water‐rock chemistry in Enceladus’ core would be the singular source for oceanic phosphorus for prebiotic chemistry. Here we discuss the production of organophosphates, reduced P compounds, and polyphosphates that might be possible within Enceladus, based on our understanding of prebiotic phosphorus reactions on early Earth.

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Journal
ChemSystemsChem
Published
2025-08-28
DOI
https://doi.org/10.1002/syst.202500029
Citations
1
Primary Topic
Origins and Evolution of Life
Type
article
Field-Weighted Citation Impact
1.15
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article

Constraints of Prebiotic Phosphorus Reactions Within Enceladus Hydrothermal Systems

Laura M. Barge, Katherine A. Dzurilla, Matthew A. Pasek
1 citations
ChemSystemsChem
Origins and Evolution of Life
1.15
article

Constraints of Prebiotic Phosphorus Reactions Within Enceladus Hydrothermal Systems

Laura M. Barge, Katherine A. Dzurilla, Matthew A. Pasek
article en
1 citations

Abstract

Abstract Phosphorus (P) is a limiting element for prebiotic/biotic activity, and its availability constrains planetary habitability. Phosphates detected in Enceladus’ plume material could expand the range of potential prebiotic reactions possibly occurring within its subsurface ocean. However, for phosphorus chemistry to influence potential prebiotic chemistry, the environment must be favorable for the production of organophosphates and condensed phosphorus species. While mechanisms for the formation of organophosphates and polyphosphates exist within an early Earth context, these reactions rely on various environmental sources of phosphorus and are typically dependent on a low water activity environment to drive condensation or phosphorylation. For Enceladus, this would limit such reactions to within the core and/or hydrothermal systems, and water‐rock chemistry in Enceladus’ core would be the singular source for oceanic phosphorus for prebiotic chemistry. Here we discuss the production of organophosphates, reduced P compounds, and polyphosphates that might be possible within Enceladus, based on our understanding of prebiotic phosphorus reactions on early Earth.

ChemSystemsChemVol. 7(6)
Jet Propulsion Laboratory (US), Rensselaer Polytechnic Institute (US)
Openalex Percentile: Top 17%
Origins and Evolution of Life
1.15
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Constraints of Prebiotic Phosphorus Reactions Within Enceladus Hydrothermal Systems — Laura M. Barge, Katherine A. Dzurilla, et al. · ChemSystemsChem (2025) | TGRS Research Map | TGRS