Jean-Marc G Daran

This study identifies key microbial species and metabolic pathways in high-performing biofilm-based microbial electrosynthesis systems and provides insights into their community dynamics and product formation.

This study quantifies the physiology and biomass composition of C. jadinii grown on ethanol, identifying its high growth rate, energy efficiency, and protein content as promising traits for industrial applications.

This paper demonstrates a biofilm-based microbial cathode system achieving high productivity in CO2 reduction to carboxylic acids, with record-breaking current and productivity densities.

This study measures growth rates and biomass yields of Saccharomycotina yeasts on ethanol, finding that species with Complex-I genes achieve higher biomass yields.

CRI-SPA transfers genetic features between yeast strains to map sequence to function, demonstrating its ability to transfer genes for betaxanthin production across a yeast knock-out collection.

This study successfully humanizes the entire glycolytic pathway in yeast, revealing conserved functions and context-dependent responses.

This paper introduces a cloning- and PCR-free method for CRISPR-based multiplexed genome editing in yeast using linear DNA fragments and T7 RNA polymerase.

This paper introduces synthetic chromosomes in yeast for modular pathway engineering, demonstrating efficient assembly and stable replication of non-coding DNA.

The paper identifies stress-induced genes in budding yeasts and finds they are enriched for young, non-essential genes that evolve rapidly.

The paper uses nanopore sequencing and a new method to show lager-brewing yeasts originated from a single hybridization event, with Group 1 and 2 strains diverging after this event.

This study shows that CRISPR-Cas9 editing in diploid yeast causes off-target mutations and loss of heterozygosity due to homology-directed repair.

This paper presents a near-complete genome assembly of Saccharomyces cerevisiae strain CEN.PK113-7D using Nanopore sequencing, revealing new genes and a chromosomal translocation.