Computational design is becoming an integral component in developing novel enzymatic activities. Catalytic efficiencies of man-made enzymes however are far behind their natural counterparts. The discrepancy between laboratory and naturally evolved enzymes suggests that a major catalytic factor is still missing in the computational process. Reorganization energy, which is the origin of catalytic power of natural enzymes, has not been exploited yet for design. As exemplified in case of KE07 Kemp eliminase, this quantity is optimized by directed evolution. Mutations beneficial for evolution, but without direct impact on catalysis can be identified based on contributions to reorganization energy. We propose to incorporate the reorganization ene...
Enzyme design and evolution strategies rely exclusively on Nature’s standard amino acid alphabet of ...
An unsolved mystery in biology concerns the link between enzyme catalysis and protein motions. Compa...
Present state of research on expanding enzyme catalysis beyond nature For more than twenty years thi...
Computational design is becoming an integral component in developing novel enzymatic activities. Cat...
Computational design is becoming an integral component in developing novel enzymatic activities. Cat...
Developments in computational chemistry, bioinformatics, and laboratory evolution have facilitated t...
Enzymes are versatile and efficient biological catalysts that drive numerous cellular processes, mot...
Currently, there are two main approaches for improving the performance of enzymes. One approach uses...
Protein design is a challenging problem. We do not fully understand the rules of protein folding, an...
We review the standard model for de novo computational design of enzymes, which primarily focuses on...
Computational protein design is becoming a powerful tool for tailoring enzymes for specific biotechn...
AbstractUnderstanding and Improving Designed Enzymes by Computer SimulationsBy Asmit BhowmickDoctor ...
Enzymes are tremendously proficient catalysts, which can be used as extracellular catalysts for a wh...
Activation heat capacity is emerging as a crucial factor in enzyme thermoadaptation, as shown by non...
AbstractRecent molecular techniques have made it feasible to simulate evolutionary processes and app...
Enzyme design and evolution strategies rely exclusively on Nature’s standard amino acid alphabet of ...
An unsolved mystery in biology concerns the link between enzyme catalysis and protein motions. Compa...
Present state of research on expanding enzyme catalysis beyond nature For more than twenty years thi...
Computational design is becoming an integral component in developing novel enzymatic activities. Cat...
Computational design is becoming an integral component in developing novel enzymatic activities. Cat...
Developments in computational chemistry, bioinformatics, and laboratory evolution have facilitated t...
Enzymes are versatile and efficient biological catalysts that drive numerous cellular processes, mot...
Currently, there are two main approaches for improving the performance of enzymes. One approach uses...
Protein design is a challenging problem. We do not fully understand the rules of protein folding, an...
We review the standard model for de novo computational design of enzymes, which primarily focuses on...
Computational protein design is becoming a powerful tool for tailoring enzymes for specific biotechn...
AbstractUnderstanding and Improving Designed Enzymes by Computer SimulationsBy Asmit BhowmickDoctor ...
Enzymes are tremendously proficient catalysts, which can be used as extracellular catalysts for a wh...
Activation heat capacity is emerging as a crucial factor in enzyme thermoadaptation, as shown by non...
AbstractRecent molecular techniques have made it feasible to simulate evolutionary processes and app...
Enzyme design and evolution strategies rely exclusively on Nature’s standard amino acid alphabet of ...
An unsolved mystery in biology concerns the link between enzyme catalysis and protein motions. Compa...
Present state of research on expanding enzyme catalysis beyond nature For more than twenty years thi...