Sentence examples for broad substrate range and from inspiring English sources

The distinct metabolic and physiological characteristics of thermophiles, including broad substrate range and high uptake rates, coupled with recent advances in genetic tool development, present unique opportunities for strain engineering.

KDCs have a broad substrate range and widely exist in plants, yeasts and fungi, but less so in bacteria [ 15].

sEH has a broad substrate range and shows high regio- and enantioselectivity for nucleophilic ring opening by Asp333.

LAT1 and LAT2 have a broad substrate range and associate with the 4F2hc glycoprotein (SLC3A2) to form a heterodimeric obligatory exchanger of high affinity.

sEH has a broad substrate range, and because of its role in detoxification and biochemical modification of drugs, or their metabolites, the regioselectivity of the epoxide ring-opening reaction has important medical relevance, because of possible differences in activity between products.

C. beijerinckii exhibits a broader substrate range and optimum pH for growth and solvent production [ 2]; thus it may have greater potential for biosolvent production than C. acetobutylicum.

Although C. beijerinckii is phenotypically similar to C. acetobutylicum, the saccharolytic strains are phylogenetically distant from the amylolytic C. acetobutylicum ATCC 824 type strain [ 2]. C. beijerinckii exhibits a broader substrate range and optimum pH for growth and solvent production [ 3]; thus it may have greater potential for biosolvent production than C. acetobutylicum.

Localization of broad substrate range enzymes and their close proximity for efficient formation of enzyme substrate complex are the significant factors for increasing the efficiency of the cellulosomes.

The rather broad substrate range of YahK and YjgB implies a more universal function like the mentioned NADP/NADPH homeostasis.

Halohydrin dehalogenase from Agrobacterium radiobacter AD1 (HheC) displays a broad substrate range with high regio- and enantioselectivity of both ring-closure and ring-opening reactions, making the enzyme a useful catalyst for the production of optically pure epoxides and β-substituted alcohols.

We previously devised a biosynthetic strategy to produce higher alcohols in Escherichia coli which takes advantage of the amino acid biosynthesis capability to produce various 2-keto acids and the broad substrate range of 2-keto acid decarboxylases (KDCs) and alcoholdehydrogenases (ADHs; Atsumi et al. 2008b).