Exploration of computational approaches to predict the structural features and recent trends in α‐amylase production for industrial applications

Amylases are biologically active enzymes that can hydrolyze starch to produce dextrin, glucose, maltose, and oligosaccharides. The amylases contribute approximately 30% to the global industrial enzyme market. The globally produced amylases are widely used in textile, biofuel, starch processing, food...

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Veröffentlicht in:Biotechnology and bioengineering 2023-08, Vol.120 (8), p.2092-2116
Hauptverfasser: Shad, Mohsin, Hussain, Naveed, Usman, Muhammad, Akhtar, Muhammad W., Sajjad, Muhammad
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container_issue 8
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Hussain, Naveed
Usman, Muhammad
Akhtar, Muhammad W.
Sajjad, Muhammad
description Amylases are biologically active enzymes that can hydrolyze starch to produce dextrin, glucose, maltose, and oligosaccharides. The amylases contribute approximately 30% to the global industrial enzyme market. The globally produced amylases are widely used in textile, biofuel, starch processing, food, bioremediation of environmental pollutants, pulp, and paper, clinical, and fermentation industries. The purpose of this review article is to summarize recent trends and aspects of α‐amylases, classification, microbial production sources, biosynthesis and production methods, and its broad‐spectrum applications for industrial purposes, which will depict the latest trends in α‐amylases production. In the present article, we have comprehensively compared the biodiversity of α‐amylases in different model organisms ranging from archaea to eukaryotes using in silico structural analysis tools. The detailed comparative analysis: regarding their structure, function, cofactor, signal peptide, and catalytic domain along with their catalytic residues of α‐amylases in 16 model organisms were discussed in this paper. The comparative studies on alpha (α) amylases' secondary and tertiary structures, multiple sequence alignment, transmembrane helices, physiochemical properties, and their phylogenetic analysis in model organisms were briefly studied. This review has documented the recent trends and future perspectives of industrially important novel thermophilic α‐amylases. In conclusion, this review sheds light on the current understanding and prospects of α‐amylase research, highlighting its importance as a versatile enzyme with numerous applications and emphasizing the need for further exploration and innovation in this field.
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The comparative studies on alpha (α) amylases' secondary and tertiary structures, multiple sequence alignment, transmembrane helices, physiochemical properties, and their phylogenetic analysis in model organisms were briefly studied. This review has documented the recent trends and future perspectives of industrially important novel thermophilic α‐amylases. 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The comparative studies on alpha (α) amylases' secondary and tertiary structures, multiple sequence alignment, transmembrane helices, physiochemical properties, and their phylogenetic analysis in model organisms were briefly studied. This review has documented the recent trends and future perspectives of industrially important novel thermophilic α‐amylases. 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The comparative studies on alpha (α) amylases' secondary and tertiary structures, multiple sequence alignment, transmembrane helices, physiochemical properties, and their phylogenetic analysis in model organisms were briefly studied. This review has documented the recent trends and future perspectives of industrially important novel thermophilic α‐amylases. 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subjects Amylases
Archaea
Biodiversity
Biofuels
Biological activity
Bioremediation
Biosynthesis
Comparative analysis
Comparative studies
Dextrin
Enzymes
Eukaryotes
extremozymes
Fermentation
Food processing
Helices
industrial application
Industrial applications
Maltose
microbial enzymes
Microorganisms
Nucleotide sequence
Oligosaccharides
Phylogeny
Physiochemistry
Production methods
Reviews
Starch
Structural analysis
Structure-function relationships
Trends
α-Amylase
title Exploration of computational approaches to predict the structural features and recent trends in α‐amylase production for industrial applications
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