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Autori principali: Roach, Ty N F, Drury, Crawford, Caruso, Carlo, Hancock, Joshua R, Martin, Christian, Neugebauer, Kerri, Majerová, Eva, Matsuda, Shayle B, McClintock, Rayna, Santoro, Erika P, van der Geer, Anneke, Varela, Alyssa, Quinn, Robert A
Natura: Artículo científico
Lingua:en
Pubblicazione: Nature communications 2025
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Accesso online:https://pubmed.ncbi.nlm.nih.gov/40593676/
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author Roach, Ty N F
Drury, Crawford
Caruso, Carlo
Hancock, Joshua R
Martin, Christian
Neugebauer, Kerri
Majerová, Eva
Matsuda, Shayle B
McClintock, Rayna
Santoro, Erika P
van der Geer, Anneke
Varela, Alyssa
Quinn, Robert A
author_facet Roach, Ty N F
Drury, Crawford
Caruso, Carlo
Hancock, Joshua R
Martin, Christian
Neugebauer, Kerri
Majerová, Eva
Matsuda, Shayle B
McClintock, Rayna
Santoro, Erika P
van der Geer, Anneke
Varela, Alyssa
Quinn, Robert A
Roach, Ty N F
Drury, Crawford
Caruso, Carlo
Hancock, Joshua R
Martin, Christian
Neugebauer, Kerri
Majerová, Eva
Matsuda, Shayle B
McClintock, Rayna
Santoro, Erika P
van der Geer, Anneke
Varela, Alyssa
Quinn, Robert A
collection PubMed - marine biology
contents Intergenerational metabolomic signatures of bleaching resistance in corals. Roach, Ty N F Drury, Crawford Caruso, Carlo Hancock, Joshua R Martin, Christian Neugebauer, Kerri Majerová, Eva Matsuda, Shayle B McClintock, Rayna Santoro, Erika P van der Geer, Anneke Varela, Alyssa Quinn, Robert A Animals Anthozoa Metabolomics Coral Reefs Dinoflagellida Symbiosis Metabolome Coral Bleaching Betaine Larva Hot Temperature Coral bleaching is one of the greatest threats to the persistence of tropical reef ecosystems. This necessitates identification of attributes associated with coral resistance and resilience to thermal stress, both within and between generations. Here, we use metabolomics to investigate the intergenerational biochemical signatures associated with heat-induced bleaching of Montipora capitata (the rice coral). By selectively breeding bleaching resistant or susceptible parents, we find metabolomic signatures of parental bleaching phenotype in sperm, eggs, embryos, larvae, and subsequent juvenile corals. Metabolome source mapping shows that these thermal tolerance signatures are from both coral host and algal symbiont, spanning a variety of molecular families. One of the strongest markers of intergenerational heat tolerance is the saturation state of DGCC betaine lipids, a molecular family previously associated with thermal tolerance in dinoflagellate symbionts of corals. Though DGCC lipid saturation state is strongly linked to algal genotypes, even coral progeny containing the more thermally susceptible Cladocopium algae show increased saturation of this lipid group if their parents had resisted recent bleaching events. This work provides evidence for biochemical inheritance as a potential mechanism for intergenerational acclimatization to warming oceans, which has substantial implications for reef conservation and restoration in the face of climate change.
format Artículo científico
id pubmed_40593676
institution PubMed
language en
publishDate 2025
publisher Nature communications
record_format pubmed
spellingShingle Intergenerational metabolomic signatures of bleaching resistance in corals.
Roach, Ty N F
Drury, Crawford
Caruso, Carlo
Hancock, Joshua R
Martin, Christian
Neugebauer, Kerri
Majerová, Eva
Matsuda, Shayle B
McClintock, Rayna
Santoro, Erika P
van der Geer, Anneke
Varela, Alyssa
Quinn, Robert A
Animals
Anthozoa
Metabolomics
Coral Reefs
Dinoflagellida
Symbiosis
Metabolome
Coral Bleaching
Betaine
Larva
Hot Temperature
Intergenerational metabolomic signatures of bleaching resistance in corals. Roach, Ty N F Drury, Crawford Caruso, Carlo Hancock, Joshua R Martin, Christian Neugebauer, Kerri Majerová, Eva Matsuda, Shayle B McClintock, Rayna Santoro, Erika P van der Geer, Anneke Varela, Alyssa Quinn, Robert A Animals Anthozoa Metabolomics Coral Reefs Dinoflagellida Symbiosis Metabolome Coral Bleaching Betaine Larva Hot Temperature Coral bleaching is one of the greatest threats to the persistence of tropical reef ecosystems. This necessitates identification of attributes associated with coral resistance and resilience to thermal stress, both within and between generations. Here, we use metabolomics to investigate the intergenerational biochemical signatures associated with heat-induced bleaching of Montipora capitata (the rice coral). By selectively breeding bleaching resistant or susceptible parents, we find metabolomic signatures of parental bleaching phenotype in sperm, eggs, embryos, larvae, and subsequent juvenile corals. Metabolome source mapping shows that these thermal tolerance signatures are from both coral host and algal symbiont, spanning a variety of molecular families. One of the strongest markers of intergenerational heat tolerance is the saturation state of DGCC betaine lipids, a molecular family previously associated with thermal tolerance in dinoflagellate symbionts of corals. Though DGCC lipid saturation state is strongly linked to algal genotypes, even coral progeny containing the more thermally susceptible Cladocopium algae show increased saturation of this lipid group if their parents had resisted recent bleaching events. This work provides evidence for biochemical inheritance as a potential mechanism for intergenerational acclimatization to warming oceans, which has substantial implications for reef conservation and restoration in the face of climate change.
title Intergenerational metabolomic signatures of bleaching resistance in corals.
topic Animals
Anthozoa
Metabolomics
Coral Reefs
Dinoflagellida
Symbiosis
Metabolome
Coral Bleaching
Betaine
Larva
Hot Temperature
url https://pubmed.ncbi.nlm.nih.gov/40593676/