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Post main sequence evolution of icy minor planets II: water retention and white dwarf pollution around massive progenitor stars

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arxiv 1704.01165 v2 pith:KOPSHQUZ submitted 2017-04-04 astro-ph.EP

classification astro-ph.EP
keywords waterretentionminorplanetspollutionprogenitoraroundbecome
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Most studies suggest the pollution of white dwarf (WD) atmospheres arises from accretion of minor planets, but the exact properties of polluting material, and in particular the evidence for water in some cases are not yet understood. Here we study the water retention of small icy bodies in exo-solar planetary systems, as their respective host stars evolve through and off the main sequence and eventually become WDs. We explore for the first time a wide range of star masses and metallicities. We find that the mass of the WD progenitor star is of crucial importance for the retention of water, while its metallicity is relatively unimportant. We predict that minor planets around lower-mass WD progenitors would retain more water in general, and would do so at closer distances from the WD, compared with high-mass progenitors. The dependence of water retention on progenitor mass and other parameters has direct implications for the origin of observed WD pollution, and we discuss how our results and predictions might be tested in the future as more observations of WDs with long cooling-ages become available.

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Cited by 1 Pith paper

Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score.

  1. First planetesimals from DESI DR1: 12 highly metal-rich white dwarfs

    astro-ph.EP 2026-07 conditional novelty 6.0 of 10

    Twelve white dwarfs from DESI DR1 have accreted debris resembling inner-Solar-System rock, with two systems likely accreting water-rich planetesimals.

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