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| Auteurs principaux: | , , , , , , , , , , , , , , , |
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| Format: | Artículo científico |
| Langue: | en |
| Publié: |
Science (New York, N.Y.)
2026
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| Sujets: | |
| Accès en ligne: | https://pubmed.ncbi.nlm.nih.gov/41505541/ |
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| _version_ | 1868266102688055296 |
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| author | Leung, Pok Man Jeffrey, Luke C Bay, Sean K Gomez-Alvarez, Paula Hall, Montgomery Johnston, Scott G Dittmann, Johannes Deschaseaux, Elisabeth Hopkins, Billie Haskell, Jasmine Jirapanjawat, Thanavit Hutchinson, Tess F Coleman, Nicholas V Dong, Xiyang Maher, Damien T Greening, Chris |
| author_facet | Leung, Pok Man Jeffrey, Luke C Bay, Sean K Gomez-Alvarez, Paula Hall, Montgomery Johnston, Scott G Dittmann, Johannes Deschaseaux, Elisabeth Hopkins, Billie Haskell, Jasmine Jirapanjawat, Thanavit Hutchinson, Tess F Coleman, Nicholas V Dong, Xiyang Maher, Damien T Greening, Chris Leung, Pok Man Jeffrey, Luke C Bay, Sean K Gomez-Alvarez, Paula Hall, Montgomery Johnston, Scott G Dittmann, Johannes Deschaseaux, Elisabeth Hopkins, Billie Haskell, Jasmine Jirapanjawat, Thanavit Hutchinson, Tess F Coleman, Nicholas V Dong, Xiyang Maher, Damien T Greening, Chris |
| collection | PubMed - marine biology |
| contents | Bark microbiota modulate climate-active gas fluxes in Australian forests. Leung, Pok Man Jeffrey, Luke C Bay, Sean K Gomez-Alvarez, Paula Hall, Montgomery Johnston, Scott G Dittmann, Johannes Deschaseaux, Elisabeth Hopkins, Billie Haskell, Jasmine Jirapanjawat, Thanavit Hutchinson, Tess F Coleman, Nicholas V Dong, Xiyang Maher, Damien T Greening, Chris Methane Plant Bark Australia Microbiota Forests Hydrogen Carbon Monoxide Metagenomics Trees Bacteria Anaerobiosis Recent studies suggest that microbes inhabit tree bark, yet little is known about their identities, functions, and environmental roles. Here we reveal, through gene-centric and genome-resolved metagenomics, that the bark of eight common Australian tree species hosts abundant and specialized microbial communities. The predominant bacteria are hydrogen-cycling facultative anaerobes adapted to dynamic redox and substrate conditions. Furthermore, bark-associated methanotrophs are abundant and can coexist with hydrogenotrophic methanogens. Microcosm experiments showed that bark microorganisms aerobically consume methane, hydrogen, and carbon monoxide at in planta concentrations and produce these gases under anoxia. Combined with in situ field measurements, we show that tree-dwelling microbiota metabolize multiple climate-active gases at marked rates within tree stems, highlighting a potentially substantial role in global atmospheric cycles. |
| format | Artículo científico |
| id | pubmed_41505541 |
| institution | PubMed |
| language | en |
| publishDate | 2026 |
| publisher | Science (New York, N.Y.) |
| record_format | pubmed |
| spellingShingle | Bark microbiota modulate climate-active gas fluxes in Australian forests. Leung, Pok Man Jeffrey, Luke C Bay, Sean K Gomez-Alvarez, Paula Hall, Montgomery Johnston, Scott G Dittmann, Johannes Deschaseaux, Elisabeth Hopkins, Billie Haskell, Jasmine Jirapanjawat, Thanavit Hutchinson, Tess F Coleman, Nicholas V Dong, Xiyang Maher, Damien T Greening, Chris Methane Plant Bark Australia Microbiota Forests Hydrogen Carbon Monoxide Metagenomics Trees Bacteria Anaerobiosis Bark microbiota modulate climate-active gas fluxes in Australian forests. Leung, Pok Man Jeffrey, Luke C Bay, Sean K Gomez-Alvarez, Paula Hall, Montgomery Johnston, Scott G Dittmann, Johannes Deschaseaux, Elisabeth Hopkins, Billie Haskell, Jasmine Jirapanjawat, Thanavit Hutchinson, Tess F Coleman, Nicholas V Dong, Xiyang Maher, Damien T Greening, Chris Methane Plant Bark Australia Microbiota Forests Hydrogen Carbon Monoxide Metagenomics Trees Bacteria Anaerobiosis Recent studies suggest that microbes inhabit tree bark, yet little is known about their identities, functions, and environmental roles. Here we reveal, through gene-centric and genome-resolved metagenomics, that the bark of eight common Australian tree species hosts abundant and specialized microbial communities. The predominant bacteria are hydrogen-cycling facultative anaerobes adapted to dynamic redox and substrate conditions. Furthermore, bark-associated methanotrophs are abundant and can coexist with hydrogenotrophic methanogens. Microcosm experiments showed that bark microorganisms aerobically consume methane, hydrogen, and carbon monoxide at in planta concentrations and produce these gases under anoxia. Combined with in situ field measurements, we show that tree-dwelling microbiota metabolize multiple climate-active gases at marked rates within tree stems, highlighting a potentially substantial role in global atmospheric cycles. |
| title | Bark microbiota modulate climate-active gas fluxes in Australian forests. |
| topic | Methane Plant Bark Australia Microbiota Forests Hydrogen Carbon Monoxide Metagenomics Trees Bacteria Anaerobiosis |
| url | https://pubmed.ncbi.nlm.nih.gov/41505541/ |