Aspects of microbial communities in peatland carbon cycling under changing climate and land use pressures

Aspects of microbial communities in peatland carbon cycling under changing climate and land use pressures
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Clare H. Robinson;J. Ritson;Danielle Alderson;A.A. Malik;R. Griffiths;Andreas Heinemeyer;Angela Gallego-Sala;A. Quillet;B. Robroek;Chris Evans;Dave M. Chandler;David R. Elliott;Emma L. Shutttleworth;E. Lilleskov;E. Kitson;Filipa Cox;F. Worrall;G. Clay;Ian Crosher;Jennifer Pratscher;Jon Bird;Jonathan Walker-;L. R. Belyea;Marc G. Dumont;Nichole G.A. Bell;Rebekka R. E. Artz;R. Bardgett;Roxane Andersen;Simon M. Hutchinson;S. Page;Tim J. Thom;W. Burn;M. Evans
Clare H. Robinson;J. Ritson;Danielle Alderson;A.A. Malik;R. Griffiths;Andreas Heinemeyer;Angela Gallego-Sala;A. Quillet;B. Robroek;Chris Evans;Dave M. Chandler;David R. Elliott;Emma L. Shutttleworth;E. Lilleskov;E. Kitson;Filipa Cox;F. Worrall;G. Clay;Ian Crosher;Jennifer Pratscher;Jon Bird;Jonathan Walker-;L. R. Belyea;Marc G. Dumont;Nichole G.A. Bell;Rebekka R. E. Artz;R. Bardgett;Roxane Andersen;Simon M. Hutchinson;S. Page;Tim J. Thom;W. Burn;M. Evans
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作者:
Clare H. Robinson;J. Ritson;Danielle Alderson;A.A. Malik;R. Griffiths;Andreas Heinemeyer;Angela Gallego-Sala;A. Quillet;B. Robroek;Chris Evans;Dave M. Chandler;David R. Elliott;Emma L. Shutttleworth;E. Lilleskov;E. Kitson;Filipa Cox;F. Worrall;G. Clay;Ian Crosher;Jennifer Pratscher;Jon Bird;Jonathan Walker-;L. R. Belyea;Marc G. Dumont;Nichole G.A. Bell;Rebekka R. E. Artz;R. Bardgett;Roxane Andersen;Simon M. Hutchinson;S. Page;Tim J. Thom;W. Burn;M. Evans

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peatland microbial communities and the implications for C sequestration and climate regulation. It is authored by peatland scientists, microbial ecologists, land managers and non-governmental organisations who were attendees at a series of three workshops held at The University of Manchester (UK) in 2019–2020. Our review suggests that the increase in methane flux sometimes observed when water tables are restored is predicated on the availability of labile carbon from vegetation and the absence of alternative terminal electron acceptors. Peatland microbial communities respond relatively rapidly to shifts in vegetation induced by climate change and subsequent changes in the quantity and quality of below-ground C substrate inputs. Other consequences of climate change that affect peatland microbial communities and C cycling include alterations in snow cover and permafrost thaw. In the face of rapid climate change, restoration of a resilient microbiome is essential to sustaining the climate regulation functions of peatland systems. Technological developments enabling faster characterisation of microbial communities and functions support progress towards this goal, which will require a strongly interdisciplinary approach.