Journal of Chemical Theory and Computation · 2017 · 31 citations · 39 references
EngineeringBiochemistryBioengineeringBiocatalysisEnzymologyProtein EngineeringBiocatalyst DiscoveryEnzyme DesignEnzyme FunctionEnzyme-substrate RecognitionSubstrate BindingSubstrate RecognitionBinding Pocket DesignDe Novo Enzyme DesignEnzyme OptimizationEnzyme-substrate Interaction ModelingLaccase CatalysisRedox PotentialSubstrate Binding PocketsSubstrate Binding Sites
To meet the very specific requirements demanded by industry, proteins must be appropriately tailored. Engineering laccases, to improve the oxidation of small molecules, with applications in multiple fields, is, however, a difficult task. Most efforts have concentrated on increasing the redox potential of the enzyme, but in recent work, we have pursued an alternate strategy to engineering these biocatalysts. In particular, we have found that redesigning substrate binding at the T1 pocket, guided by in silico methodologies, to be a more consistent option. In this work, we evaluate the robustness of our computational approach to estimate activity, emphasizing the importance of the binding event in laccase reactivity. Strengths and weaknesses of the protocol are discussed along with its potential for scoring large numbers of protein sequences and thus its significance in protein engineering.
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Yan Zhao, Donald G. Truhlar · Theoretical Chemistry Accounts · 2007 · 30K citations · Full text
Natural Sciences, Chemistry, Physics +17
A smooth particle mesh Ewald method
Ulrich Essmann, L. Perera, Max L. Berkowitz et al. · The Journal of Chemical Physics · 1995 · 22.9K citations