| Literature DB >> 29076547 |
David J Weston1,2, Merritt R Turetsky3, Matthew G Johnson4, Gustaf Granath5, Zoë Lindo6, Lisa R Belyea7, Steven K Rice8, David T Hanson9, Katharina A M Engelhardt10, Jeremy Schmutz11,12, Ellen Dorrepaal13, Eugénie S Euskirchen14, Hans K Stenøien15, Péter Szövényi16, Michelle Jackson17, Bryan T Piatkowski17, Wellington Muchero1, Richard J Norby2,18, Joel E Kostka19, Jennifer B Glass19, Håkan Rydin20, Juul Limpens21, Eeva-Stiina Tuittila22, Kristian K Ullrich23, Alyssa Carrell1, Brian W Benscoter24, Jin-Gui Chen1, Tobi A Oke3, Mats B Nilsson25, Priya Ranjan26, Daniel Jacobson1, Erik A Lilleskov27, R S Clymo28, A Jonathan Shaw17.
Abstract
Considerable progress has been made in ecological and evolutionary genetics with studies demonstrating how genes underlying plant and microbial traits can influence adaptation and even 'extend' to influence community structure and ecosystem level processes. Progress in this area is limited to model systems with deep genetic and genomic resources that often have negligible ecological impact or interest. Thus, important linkages between genetic adaptations and their consequences at organismal and ecological scales are often lacking. Here we introduce the Sphagnome Project, which incorporates genomics into a long-running history of Sphagnum research that has documented unparalleled contributions to peatland ecology, carbon sequestration, biogeochemistry, microbiome research, niche construction, and ecosystem engineering. The Sphagnome Project encompasses a genus-level sequencing effort that represents a new type of model system driven not only by genetic tractability, but by ecologically relevant questions and hypotheses.Entities:
Keywords: zzm321990Sphagnumzzm321990; Sphagnome; ecological genomics; ecosystem engineering; evolutionary genetics; genome sequencing; niche construction; peatlands
Mesh:
Year: 2017 PMID: 29076547 DOI: 10.1111/nph.14860
Source DB: PubMed Journal: New Phytol ISSN: 0028-646X Impact factor: 10.151