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Adaptive laboratory evolution has proven highly effective for obtaining microorganisms with enhanced capabilities. Yet, this method is inherently restricted to the traits that are positively linked to cell fitness, such as nutrient utilization. Here, we introduce coevolution of obligatory mutuali...

2021-07-02 | MTBLS2217 | MetaboLights

Isobutanol production has been demonstrated in E. coli and Z. mobilis using heterologous pathways, with titers reaching up to 60% of the theoretical yield under optimized conditions. However, these results often depend on impractical setups, such as continuous product extraction, oxygenation, or ...

2026-03-18 | MTBLS14081 | MetaboLights

Limited resource availability in the gut promotes competitive interactions between bacteria, which drive adaptive within-host evolution. While the role of bacterial adaptive evolution of bacterial communities has been extensively studied, its functional implications for host physiology remain unk...

2026-08-03 | MTBLS10327 | MetaboLights

225 years ago, Alexander von Humboldt observed the first crassulacean acid metabolism (CAM) tree, Clusia rosea (Clusiaceae). Since then, the photosynthetic and ecophysiological plasticity of Clusia

species have captivated the minds of plant scientists worldwide. CAM is a physiological adapt...

2026-03-23 | MTBLS14075 | MetaboLights
A Saccharomyces cerevisiae population was cultured for many generations under conditions to which it is not optimally adapted. These experiments were designed to investigate adaptive evolution under natural selection. This study is described in more detail in Ferea TL, et al. 1999. Proc Natl Acad Sc...
ORGANISM(S): Saccharomyces cerevisiae 

The phycosphere is an important ecological niche for bacteria and antibiotic resistance genes (ARGs). However, whether and how the interaction between microalgae and bacteria changed, and its further effect on the transmission of ARGs under pollutant stress remains enigmatic. Here, Auxenochlorell...

2025-09-26 | MTBLS11371 | MetaboLights
Adaptive evolution is generally assumed to progress through the accumulation of beneficial mutations. However, deleterious mutations may also have an important role by promoting adaptive genetic changes that are otherwise inaccessible. Here we study the capacity of the bakerM-bM-^@M-^Ys yeast genome...
ORGANISM(S): Saccharomyces cerevisiae BY4741 
To overcome the inhibition caused by the fermentation supernatant in the late fermentation stage of docosahexaenoic acid (DHA)-producing Crypthecodinium cohnii, fermentation supernatant-based adaptive laboratory evolution (FS-ALE) was conducted. The cell growth and DHA productivity of the evolved st...
ORGANISM(S): Crypthecodinium Cohnii 
2021-11-27 | PXD030028 |
Chemostat evolution experiment C1 under glucose-limited condition at 30C. Gene Expression profiles of adaptive clones M1-M5 in evolved conditions compared with original parents. An all pairs experiment design type is where all labeled extracts are compared to every other labeled extract. Genotype: ...
ORGANISM(S): Saccharomyces cerevisiae 
Adaptive laboratory evolution with heterologous pgi
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