Mosses are non-vascular plants usually found in moist and shaded areas with ecological importance in several ecosystems. This is especially true in northern latitudes, where mosses are responsible for up to 100 % of primary production in some ecosystems. Mosses establish symbiotic associations with unique bacteria that play key roles in the carbon and nitrogen cycles. For instance, in boreal environments, up to more than 35 % of the nitrogen fixed by diazotrophic symbionts in peatlands is transferred to mosses, directly affecting carbon fixation by the hosts, while moss-associated methanotrophic bacteria contribute with 10-30 % of moss carbon. Further, half of ecosystem N input may derive from moss-cyanobacteria associations in pristine ecosystems. Moss-bacteria interactions have consequences on a global scale since northern environments sequester 20 % of all the carbon generated by forests in the world and stock at least 32 % of global terrestrial carbon. Different moss hosts influence bacteria in distinct ways, which suggests that threats to mosses also threaten unique microbial communities with important ecological and biogeochemical consequences. Mosses have interacted with bacteria since their origin at ~500Ma BP, making these associations ideal models for understanding the evolution of plant-microbe associations and their contribution to biogeochemical cycles.
Unraveling host-microbe interactions and ecosystem functions in moss-bacteria symbioses.
Published 2022 in Journal of Experimental Botany
ABSTRACT
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- Publication year
2022
- Venue
Journal of Experimental Botany
- Publication date
2022-06-21
- Fields of study
Biology, Medicine, Environmental Science
- Identifiers
- External record
- Source metadata
Semantic Scholar, PubMed
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