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A kinetic model incorporating dynamic adsorption, enzymatic hydrolysis, and product inhibition was developed for enzymatic hydrolysis of differently pretreated fibers from a nitrogen‐rich lignocellulosic material—dairy manure. The effects of manure proteins on the enzyme adsorption profile during hydrolysis have been discussed. Enzyme activity, instead of protein concentration, was used to describe the enzymatic hydrolysis in order to avoid the effect of manure protein on enzyme protein analysis. Dynamic enzyme adsorption was modeled based on a Langmiur‐type isotherm. A first‐order reaction was applied to model the hydrolysis with consideration being given for the product inhibition. The model satisfactorily predicted the behaviors of enzyme adsorption, hydrolysis, and product inhibition for all five sample manure fibers. The reaction conditions were the substrate concentrations of 10–50 g/L, enzyme loadings of 7–150 FPU/g total substrate, and the reaction temperature of 50°C. Biotechnol. Bioeng. 2008;101: 441–451. © 2008 Wiley Periodicals, Inc.
Biotechnology and Bioengineering – Wiley
Published: Oct 15, 2008
Keywords: dairy manure; enzymatic hydrolysis; enzyme adsorption; kinetic model; nitrogen‐rich lignocellulosic material; pretreatment
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