Birrer Sandbox 2: Difference between revisions

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The alcohol dehydrogenase catalyzed aldehyde-NADH reaction show kinetics consistent with a  random-order mechanism, and the rate-limiting step is the dissociation of the product enzyme-NAD+ complex. <ref>PMID: 4352908</ref> Alcohol dehydrogenase is more effective for smaller alcohol substrates, and it becomes less effective as substrate size increases. It is also more effective for primary than secondary alcohols.<ref>PMID: 4352908</ref>  
The alcohol dehydrogenase catalyzed aldehyde-NADH reaction show kinetics consistent with a  random-order mechanism, and the rate-limiting step is the dissociation of the product enzyme-NAD+ complex. <ref>PMID: 4352908</ref> Alcohol dehydrogenase is more effective for smaller alcohol substrates, and it becomes less effective as substrate size increases. It is also more effective for primary than secondary alcohols.<ref>PMID: 4352908</ref> In a study where ADH was immobilized in tresyl-chloride-activate agarose, it was shown that the Michaelis-Menten model could not take into consideration all the constraints induced by the immobilization on the enzyme properties but that the Theorell-Chance model was more appropriate.<ref>PMID: 3769934</ref>




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David Birrer