Resistance to freezing conditions of endemic Antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome

The microbiome plays a key role in the health of all metazoans. Whether and how the microbiome favors the adaptation processes of organisms to extreme conditions, such as those of Antarctica, which are incompatible with most metazoans, is still unknown. We investigated the microbiome of three endemi...

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Published in:Science Advances
Main Authors: Emanuela Buschi, Antonio Dell'Anno, Michael Tangherlini, Marco Candela, Simone Rampelli, Silvia Turroni, Giorgia Palladino, Erika Esposito, Marco Lo Martire, Luigi Musco, Sergio Stefanni, Cristina Munari, Jessica Fiori, Roberto Danovaro, Cinzia Corinaldesi
Other Authors: Buschi, Emanuela, Dell'Anno, Antonio, Tangherlini, Michael, Candela, Marco, Rampelli, Simone, Turroni, Silvia, Palladino, Giorgia, Esposito, Erika, Lo Martire, Marco, Musco, Luigi, Stefanni, Sergio, Munari, Cristina, Fiori, Jessica, Danovaro, Roberto, Corinaldesi, Cinzia
Format: Article in Journal/Newspaper
Language:English
Published: 2024
Subjects:
Online Access:https://hdl.handle.net/11587/523446
https://doi.org/10.1126/sciadv.adk9117
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spelling ftunivsalento:oai:iris.unisalento.it:11587/523446 2024-09-15T17:44:14+00:00 Resistance to freezing conditions of endemic Antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome Emanuela Buschi Antonio Dell'Anno Michael Tangherlini Marco Candela Simone Rampelli Silvia Turroni Giorgia Palladino Erika Esposito Marco Lo Martire Luigi Musco Sergio Stefanni Cristina Munari Jessica Fiori Roberto Danovaro Cinzia Corinaldesi Buschi, Emanuela Dell'Anno, Antonio Tangherlini, Michael Candela, Marco Rampelli, Simone Turroni, Silvia Palladino, Giorgia Esposito, Erika Lo Martire, Marco Musco, Luigi Stefanni, Sergio Munari, Cristina Fiori, Jessica Danovaro, Roberto Corinaldesi, Cinzia 2024 ELETTRONICO https://hdl.handle.net/11587/523446 https://doi.org/10.1126/sciadv.adk9117 eng eng volume:10 journal:SCIENCE ADVANCES https://hdl.handle.net/11587/523446 doi:10.1126/sciadv.adk9117 info:eu-repo/semantics/article 2024 ftunivsalento https://doi.org/10.1126/sciadv.adk9117 2024-07-04T23:31:58Z The microbiome plays a key role in the health of all metazoans. Whether and how the microbiome favors the adaptation processes of organisms to extreme conditions, such as those of Antarctica, which are incompatible with most metazoans, is still unknown. We investigated the microbiome of three endemic and widespread species of Antarctic polychaetes: Leitoscoloplos geminus, Aphelochaeta palmeri, and Aglaophamus trissophyllus. We report here that these invertebrates contain a stable bacterial core dominated by Meiothermus and Anoxybacillus, equipped with a versatile genetic makeup and a unique portfolio of proteins useful for coping with extremely cold conditions as revealed by pangenomic and metaproteomic analyses. The close phylosymbiosis between Meiothermus and Anoxybacillus and these Antarctic polychaetes indicates a connection with their hosts that started in the past to support holobiont adaptation to the Antarctic Ocean. The wide suite of bacterial cryoprotective proteins found in Antarctic polychaetes may be useful for the development of nature-based biotechnological applications. Article in Journal/Newspaper Antarc* Antarctic Antarctic Ocean Antarctica Università del Salento: CINECA IRIS Science Advances 10 25
institution Open Polar
collection Università del Salento: CINECA IRIS
op_collection_id ftunivsalento
language English
description The microbiome plays a key role in the health of all metazoans. Whether and how the microbiome favors the adaptation processes of organisms to extreme conditions, such as those of Antarctica, which are incompatible with most metazoans, is still unknown. We investigated the microbiome of three endemic and widespread species of Antarctic polychaetes: Leitoscoloplos geminus, Aphelochaeta palmeri, and Aglaophamus trissophyllus. We report here that these invertebrates contain a stable bacterial core dominated by Meiothermus and Anoxybacillus, equipped with a versatile genetic makeup and a unique portfolio of proteins useful for coping with extremely cold conditions as revealed by pangenomic and metaproteomic analyses. The close phylosymbiosis between Meiothermus and Anoxybacillus and these Antarctic polychaetes indicates a connection with their hosts that started in the past to support holobiont adaptation to the Antarctic Ocean. The wide suite of bacterial cryoprotective proteins found in Antarctic polychaetes may be useful for the development of nature-based biotechnological applications.
author2 Buschi, Emanuela
Dell'Anno, Antonio
Tangherlini, Michael
Candela, Marco
Rampelli, Simone
Turroni, Silvia
Palladino, Giorgia
Esposito, Erika
Lo Martire, Marco
Musco, Luigi
Stefanni, Sergio
Munari, Cristina
Fiori, Jessica
Danovaro, Roberto
Corinaldesi, Cinzia
format Article in Journal/Newspaper
author Emanuela Buschi
Antonio Dell'Anno
Michael Tangherlini
Marco Candela
Simone Rampelli
Silvia Turroni
Giorgia Palladino
Erika Esposito
Marco Lo Martire
Luigi Musco
Sergio Stefanni
Cristina Munari
Jessica Fiori
Roberto Danovaro
Cinzia Corinaldesi
spellingShingle Emanuela Buschi
Antonio Dell'Anno
Michael Tangherlini
Marco Candela
Simone Rampelli
Silvia Turroni
Giorgia Palladino
Erika Esposito
Marco Lo Martire
Luigi Musco
Sergio Stefanni
Cristina Munari
Jessica Fiori
Roberto Danovaro
Cinzia Corinaldesi
Resistance to freezing conditions of endemic Antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome
author_facet Emanuela Buschi
Antonio Dell'Anno
Michael Tangherlini
Marco Candela
Simone Rampelli
Silvia Turroni
Giorgia Palladino
Erika Esposito
Marco Lo Martire
Luigi Musco
Sergio Stefanni
Cristina Munari
Jessica Fiori
Roberto Danovaro
Cinzia Corinaldesi
author_sort Emanuela Buschi
title Resistance to freezing conditions of endemic Antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome
title_short Resistance to freezing conditions of endemic Antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome
title_full Resistance to freezing conditions of endemic Antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome
title_fullStr Resistance to freezing conditions of endemic Antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome
title_full_unstemmed Resistance to freezing conditions of endemic Antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome
title_sort resistance to freezing conditions of endemic antarctic polychaetes is enhanced by cryoprotective proteins produced by their microbiome
publishDate 2024
url https://hdl.handle.net/11587/523446
https://doi.org/10.1126/sciadv.adk9117
genre Antarc*
Antarctic
Antarctic Ocean
Antarctica
genre_facet Antarc*
Antarctic
Antarctic Ocean
Antarctica
op_relation volume:10
journal:SCIENCE ADVANCES
https://hdl.handle.net/11587/523446
doi:10.1126/sciadv.adk9117
op_doi https://doi.org/10.1126/sciadv.adk9117
container_title Science Advances
container_volume 10
container_issue 25
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