In this contribution, recent developments in the design of biocatalysts are reviewed with particular emphasis in the de novo strategy. Studies based on three different reactions, Kemp elimination, Diels–Alder and Retro-Aldolase, are used to illustrate different success achieved during the last years. Finally, a section is devoted to the particular case of designed metalloenzymes. As a general conclusion, the interplay between new and more sophisticated engineering protocols and computational methods, based on molecular dynamics simulations with Quantum Mechanics/Molecular Mechanics potentials and fully flexible models, seems to constitute the bed rock for present and future successful design strategies.This work was supported by the Spanish...
A general approach for the computational design of enzymes to catalyze arbitrary reactions is a goal...
De novo design of proteins has enabled the exploration of vast regions of sequence space previously ...
The challenging field of de novo enzyme design is beginning to produce exciting results. The applica...
Natural metalloenzymes are often the most proficient catalysts in terms of their activity, selectivi...
We review the standard model for de novo computational design of enzymes, which primarily focuses on...
The creation of enzymes capable of catalyzing any desired chemical reaction is a grand challenge for...
Computational protein design is becoming a powerful tool for tailoring enzymes for specific biotechn...
Enzymes are molecules that play a crucial role in many biological and chemical processes. To underst...
Computational enzyme design has emerged as a promising tool for generating made-to-order biocatalyst...
The aim of this thesis is to explore computational methodologies for the design and screening of enz...
The development of reliable methods for the 'on demand" de novo design of an enzymatic catalyst for ...
The purpose of this tutorial review is to illustrate the way to design new and powerful catalysts. ...
Enzymes are the most efficient biocatalysts in Nature. However, biocatalysts in general are not capa...
Metalloenzymes catalyze a wide variety of reactions in nature by taking advantage of the versatility...
The design of new biocatalysts is a target that is receiving increasing attention. One of the most p...
A general approach for the computational design of enzymes to catalyze arbitrary reactions is a goal...
De novo design of proteins has enabled the exploration of vast regions of sequence space previously ...
The challenging field of de novo enzyme design is beginning to produce exciting results. The applica...
Natural metalloenzymes are often the most proficient catalysts in terms of their activity, selectivi...
We review the standard model for de novo computational design of enzymes, which primarily focuses on...
The creation of enzymes capable of catalyzing any desired chemical reaction is a grand challenge for...
Computational protein design is becoming a powerful tool for tailoring enzymes for specific biotechn...
Enzymes are molecules that play a crucial role in many biological and chemical processes. To underst...
Computational enzyme design has emerged as a promising tool for generating made-to-order biocatalyst...
The aim of this thesis is to explore computational methodologies for the design and screening of enz...
The development of reliable methods for the 'on demand" de novo design of an enzymatic catalyst for ...
The purpose of this tutorial review is to illustrate the way to design new and powerful catalysts. ...
Enzymes are the most efficient biocatalysts in Nature. However, biocatalysts in general are not capa...
Metalloenzymes catalyze a wide variety of reactions in nature by taking advantage of the versatility...
The design of new biocatalysts is a target that is receiving increasing attention. One of the most p...
A general approach for the computational design of enzymes to catalyze arbitrary reactions is a goal...
De novo design of proteins has enabled the exploration of vast regions of sequence space previously ...
The challenging field of de novo enzyme design is beginning to produce exciting results. The applica...