Journal article
Recruitment of distinct UDP-glycosyltransferase families demonstrates dynamic evolution of chemical defense within Eucalyptus L'Her
Cecilie Cetti Hansen, Mette Sorensen, Matteo Bellucci, Wolfgang Brandt, Carl Erik Olsen, Jason QD Goodger, Ian EE Woodrow, Birger Lindberg Moller, Elizabeth HJ Neilson
NEW PHYTOLOGIST | WILEY | Published : 2023
DOI: 10.1111/nph.18581
Abstract
The economic and ecologically important genus Eucalyptus is rich in structurally diverse specialized metabolites. While some specialized metabolite classes are highly prevalent across the genus, the cyanogenic glucoside prunasin is only produced by c. 3% of species. To investigate the evolutionary mechanisms behind prunasin biosynthesis in Eucalyptus, we compared de novo assembled transcriptomes, together with online resources between cyanogenic and acyanogenic species. Identified genes were characterized in vivo and in vitro. Pathway characterization of cyanogenic Eucalyptus camphora and Eucalyptus yarraensis showed for the first time that the final glucosylation step from mandelonitrile to..
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Awarded by VILLUM Center for Plant Plasticity
Awarded by European Research Council
Awarded by VILLUM
Awarded by Novo Nordisk
Awarded by Danish Independent Research Council
Funding Acknowledgements
We thank David R. Nelson for naming the CYPome from Eucalyptus grandis and David Vernon for his generous support for wildlife and early career researchers. This work was supported by the VILLUM Center for Plant Plasticity (VKR023054) (BLM); the European Research Council Advanced Grant (ERC-2012-ADG_20120314) (BLM); VILLUM Young Investigator Grant (VKR013167) (EHJN), a Novo Nordisk Emerging Investigator Grant (0054890) (EHJN) and funding from the Danish Independent Research Council (6111-00379B, 1051-00083B, and 1131-00002B) (EHJN).