ACS Omega · 2019 · 48 citations · 33 references
Life SciencesBiochemistryBiotechnologyBiocatalysisEnzyme TechnologyEnzymologyCatalytic MechanismsEnzymatic CatalysisEnzyme KineticsEnzyme StabilityEnzyme-substrate RecognitionThermostable EnzymesActive Site CharacterizationBiochemical CharacterizationMichaelis-menten AnalysisMichaelis-menten SpecificityRecombinant Protein PurificationThermal Stabilization Of EnzymesThermophilic CulturesThermophilic Microbiology
α-l-Rhamnosidases are catalysts of industrial tremendous interest, but their uses are still somewhat limited by their poor thermal stabilities and selectivities. The thermophilic DtRha from Dictyoglomus thermophilum was cloned, and the recombinant protein was easily purified to homogeneity to afford 4.5 mg/L culture of biocatalyst. Michaelis–Menten parameters demonstrated it to be fully specific for α-l-rhamnose. Most significantly, DtRha demonstrated to have a stronger preference for α(1 → 2) linkage rather than α(1 → 6) linkage when removing rhamnosyl moiety from natural flavonoids. This selectivity was fully explained by the difference of binding of the corresponding substrates in the active site of the protein.
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