Stephane Delmas
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Explore the profile of Stephane Delmas including associated specialties, affiliations and a list of published articles.
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20
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719
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Recent Articles
1.
ODonnell S, Yue J, Abou Saada O, Agier N, Caradec C, Cokelaer T, et al.
Nat Genet
. 2023 Jul;
55(8):1390-1399.
PMID: 37524789
Pangenomes provide access to an accurate representation of the genetic diversity of species, both in terms of sequence polymorphisms and structural variants (SVs). Here we generated the Saccharomyces cerevisiae Reference...
2.
Agier N, Fleiss A, Delmas S, Fischer G
Methods Mol Biol
. 2020 Sep;
2196:181-198.
PMID: 32889721
Genomic engineering methods represent powerful tools to examine chromosomal modifications and to subsequently study their impacts on cellular phenotypes. However, quantifying the fitness impact of translocations, independently from base substitutions...
3.
van Munster J, Daly P, Blythe M, Ibbett R, Kokolski M, Gaddipati S, et al.
Biotechnol Biofuels
. 2020 Apr;
13:69.
PMID: 32313551
Background: Understanding how fungi degrade lignocellulose is a cornerstone of improving renewables-based biotechnology, in particular for the production of hydrolytic enzymes. Considerable progress has been made in investigating fungal degradation...
4.
Fleiss A, ODonnell S, Fournier T, Lu W, Agier N, Delmas S, et al.
PLoS Genet
. 2019 Aug;
15(8):e1008332.
PMID: 31465441
Genome engineering is a powerful approach to study how chromosomal architecture impacts phenotypes. However, quantifying the fitness impact of translocations independently from the confounding effect of base substitutions has so...
5.
Agier N, Delmas S, Zhang Q, Fleiss A, Jaszczyszyn Y, van Dijk E, et al.
Nat Commun
. 2018 Jun;
9(1):2199.
PMID: 29875360
Genome replication is highly regulated in time and space, but the rules governing the remodeling of these programs during evolution remain largely unknown. We generated genome-wide replication timing profiles for...
6.
Pullan S, Daly P, Delmas S, Ibbett R, Kokolski M, Neiteler A, et al.
Fungal Biol Biotechnol
. 2017 Sep;
1:3.
PMID: 28955445
Background: Saprobic fungi are the predominant industrial sources of Carbohydrate Active enZymes (CAZymes) used for the saccharification of lignocellulose during the production of second generation biofuels. The production of more...
7.
Daly P, van Munster J, Blythe M, Ibbett R, Kokolski M, Gaddipati S, et al.
Biotechnol Biofuels
. 2017 Feb;
10:35.
PMID: 28184248
Background: The capacity of fungi, such as to degrade lignocellulose is harnessed in biotechnology to generate biofuels and high-value compounds from renewable feedstocks. Most feedstocks are currently pretreated to increase...
8.
Dahmane N, Gadelle D, Delmas S, Criscuolo A, Eberhard S, Desnoues N, et al.
Nucleic Acids Res
. 2016 Feb;
44(6):2795-805.
PMID: 26908651
Type IB DNA topoisomerases can eliminate torsional stresses produced during replication and transcription. These enzymes are found in all eukaryotes and a short version is present in some bacteria and...
9.
Pullan S, Daly P, Delmas S, Ibbett R, Kokolski M, Neiteler A, et al.
Fungal Biol Biotechnol
. 2015 Oct;
1(1):1-14.
PMID: 26457194
Background: Saprobic fungi are the predominant industrial sources of Carbohydrate Active enZymes (CAZymes) used for the saccharification of lignocellulose during the production of second generation biofuels. The production of more...
10.
van Munster J, Daly P, Delmas S, Pullan S, Blythe M, Malla S, et al.
Fungal Genet Biol
. 2014 May;
72:34-47.
PMID: 24792495
Fungi are an important source of enzymes for saccharification of plant polysaccharides and production of biofuels. Understanding of the regulation and induction of expression of genes encoding these enzymes is...