10 papers analyzed
These studies suggest that developing and optimizing enzyme-based biocatalysts for industrial processes involves protein engineering, directed evolution, rational design, display technologies, genome mining, metabolic engineering, and reaction engineering to enhance efficiency, stability, selectivity, and eco-friendliness.
Enzyme-based biocatalysts are increasingly being utilized in industrial processes due to their eco-friendliness, cost-effectiveness, and ability to operate under mild conditions. The development and optimization of these biocatalysts are crucial for enhancing their efficiency, stability, and specificity to meet industrial demands.
Directed Evolution and Rational Protein Design:
Library Creation and Screening:
Metagenomics and Genome Mining:
Immobilization Techniques:
Multi-Enzyme Cascades:
Computational Design and In Silico Studies:
Whole-Cell Biocatalysts:
The development and optimization of enzyme-based biocatalysts for industrial processes involve a combination of directed evolution, rational protein design, advanced screening methods, metagenomics, immobilization techniques, multi-enzyme cascades, computational design, and whole-cell biocatalysis. These approaches collectively enhance the activity, stability, and specificity of biocatalysts, making them more suitable for various industrial applications.
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