Thermotoga spp. can effectively utilize a variety of carbohydrates to generate hydrogen gas, making them great candidates for biofuel production. However, their ability to degrade cellulose, the most common and renewable organic material on Earth, is rather limited due to a lack of exo-glucanases. To address this deficiency, firstly technical preparations were done: the methylase M.TneDI was overexpressed in E. coli and could be used for in vitro methylation, which could enhance transformation efficiency of Thermotoga; a natural transformation protocol was optimized in T. sp. strain RQ2, which provided the convenience of genetic engineering of Thermotoga. Then cellulase genes Csac_1076 (celA) and Csac_1078 (celB) from Caldicellulosiruptor s...
Biomass recalcitrance—resistance to degradation—currently limits the use of lignocellulose for biofu...
Biomass recalcitrance—resistance to degradation—currently limits the use of lignocellulose for biofu...
Background: Thermotoga spp. are attractive candidates for producing biohydrogen, green chemicals, an...
The ability of Thermotoga spp. to degrade cellulose is limited due to a lack of exoglucanases. To ad...
To meet the demand for the application of high activity and thermostable cellulases in the productio...
Thermotoga spp. may serve as model systems for understanding life sustainability under hyperthermoph...
Background: The microbial conversion of plant biomass into value added products is an attractive opt...
Background: Thermotoga spp. are attractive candidates for producing biohydrogen, green chemicals, an...
Thermophilic microorganisms capable of using complex substrates offer special advantages for the con...
ObjectiveAdaptive laboratory evolution (ALE) is an effective approach to study the evolution behavio...
The biological conversion of lignocellulose into fermentable sugars is a key process for the sustain...
To meet the demand for the application of high activity and thermostable cellulases in the productio...
ObjectiveAdaptive laboratory evolution (ALE) is an effective approach to study the evolution behavio...
ObjectiveAdaptive laboratory evolution (ALE) is an effective approach to study the evolution behavio...
Thermophilic microorganisms capable of using complex substrates offer special advantages for the con...
Biomass recalcitrance—resistance to degradation—currently limits the use of lignocellulose for biofu...
Biomass recalcitrance—resistance to degradation—currently limits the use of lignocellulose for biofu...
Background: Thermotoga spp. are attractive candidates for producing biohydrogen, green chemicals, an...
The ability of Thermotoga spp. to degrade cellulose is limited due to a lack of exoglucanases. To ad...
To meet the demand for the application of high activity and thermostable cellulases in the productio...
Thermotoga spp. may serve as model systems for understanding life sustainability under hyperthermoph...
Background: The microbial conversion of plant biomass into value added products is an attractive opt...
Background: Thermotoga spp. are attractive candidates for producing biohydrogen, green chemicals, an...
Thermophilic microorganisms capable of using complex substrates offer special advantages for the con...
ObjectiveAdaptive laboratory evolution (ALE) is an effective approach to study the evolution behavio...
The biological conversion of lignocellulose into fermentable sugars is a key process for the sustain...
To meet the demand for the application of high activity and thermostable cellulases in the productio...
ObjectiveAdaptive laboratory evolution (ALE) is an effective approach to study the evolution behavio...
ObjectiveAdaptive laboratory evolution (ALE) is an effective approach to study the evolution behavio...
Thermophilic microorganisms capable of using complex substrates offer special advantages for the con...
Biomass recalcitrance—resistance to degradation—currently limits the use of lignocellulose for biofu...
Biomass recalcitrance—resistance to degradation—currently limits the use of lignocellulose for biofu...
Background: Thermotoga spp. are attractive candidates for producing biohydrogen, green chemicals, an...