F. Devaux's team published one of the first ChIP-seq-based description of the transcriptional regulatory networks in the pathogenic yeast Candida glabrata. This work, which was performed in collaboration with J-M. Camadro and G. Lelandais from the Jacques Monod Institute and with the NGS platform directed by S. Le Crom, is the first publication from a larger ANR project aiming at a comprehensive description of stress response regulatory networks in this emerging human pathogen.
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The team of Diatom Functional Genomics just published a paper describing how marine diatoms efficiently attune acclimation responses in highly variable ocean environments. L.Taddei*, G.R. Stella*, A. Rogato, B. Bailleul, A.E. Fortunato, R. Annunziata, R. Sanges, M. Thaler, B. Lepetit, J. Lavaud, M. Jaubert, G. Finazzi, J.P. Bouly, A. Falciatore. Multi-signal control of expression of the LHCX protein family in marine diatom Phaeodactylum tricornutum. Journal Experimental Botany, in press.
*co-first-authors
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We achieved the complete reconstruction of genome history in a model yeast genus, providing a granular view of genome evolution linking gene content, chromosome rearrangements and protein divergence into a single evolutionary framework.
N Vakirlis, Sarilar V, G Drillon, A Fleiss, N Agier, J-P Meyniel, L Blanpain, A Carbone, H Devillers, K Dubois, A Gillet-Markowska, S Graziani, Nguyen H-V, M Poirel, C Reisser, J Schott, J Schacherer, I Lafontaine, B Llorente, C Neuvéglise and Fischer G. Reconstruction of ancestral chromosome architecture and gene repertoire reveals principles of genome evolution in a model yeast genus. Genome Research (2016).
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A.E. Fortunato, M. Jaubert, J.P. Bouly, M. Thaler and A. Falciatore from the Diatom Functional Genomics team in collaboration with J.S. Bernardes (Statistical Genomics and Biological Physics), A. Carbone (Analytical Genomics) and other international collaborators published on The Plant Cell the paper “Diatom Phytochromes Reveal the Existence of Far-Red-Light-Based Sensing in the Ocean.” Full text paper.
Plant Cell Editor’s comment on this work.
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Nitric oxyde oxydases are enzymes which contributes to the resistance of pathogenic microbes to the innate immune system by detoxifying nitric oxide. "The genetic networks" team identified a new regulator of the expression of nitric oxydases in fungi and deciphered its functioning and evolution in different pathogenic and non-pathogenic yeast species.
http://www.ncbi.nlm.nih.gov/pubmed/25732006
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The "Biology of Genomes" team and the "Intraspecific Variation and Genome Evolution" team from the Université de Strasbourg have published the first population genomics survey in a yeast different form a Saccharomyces species. This study reveals that consequently to a large-scale introgression event, two different mutational regimes can coexist within the same genome.
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