
Marine carbohydrate-active enzymes represent a frontier in biotechnology, offering unparalleled potential derived from the vast and underexplored marine environment. These specialized enzymes are crucial for the biosynthesis, modification, and degradation of carbohydrates, which are ubiquitous in marine ecosystems. At CD BioGlyco, we delve into the intricate world of marine enzymes, recognizing their pivotal role in fundamental ecological processes such as nutrient cycling, the formation and degradation of exopolymeric substances that structure microbial communities, and even mineral formation. Our focus on these enzymes opens new avenues for innovation across various industrial and scientific domains.
Bioinformatics; Computational analysis; Enzyme characterization; Enzyme expression
Collect marine samples (microbial mats, water) and preserve/prepare them to protect the genetic and enzymatic content.
Extract high-quality DNA/RNA and sequence it to find CAZyme genes.
Analyze sequence data using specialized tools to identify promising marine CAZyme genes and predict their functions.
Clone the selected CAZyme genes into host systems to produce (express) the enzymes, then purify them for study.
Rigorously test the purified enzymes' activity, stability, and optimal conditions. Evaluate their performance in relevant real-world applications.
Journal: Molecules
DOI: 10.3390/molecules23040901
Published: 2018
Impact Factor: 4.6
Results: This review article provides a comprehensive update on marine-derived carbohydrate-hydrolyzing enzymes (glycosyl hydrolases) and their biotechnological applications. Trincone systematically analyzes enzymes acting on major marine polysaccharides like agar, chitin, starch, laminarin, alginate, fucoidan, carrageenan, xylan, ulvan, cellulose, mannan, and pectin. For each polysaccharide type, the author discusses newly identified enzymes, their sources (bacteria, fungi, animals), key biochemical properties (e.g., thermostability, salt tolerance, pH stability), and potential applications in diverse fields such as biofuel production, biorefineries, food processing, pharmaceuticals, nutraceuticals, and biomedicine. The review also includes a brief analysis of relevant patents from the same period, highlighting the translation of research into technological innovations. Trincone concludes that marine carbohydrate hydrolases offer significant potential across interdisciplinary domains, particularly noting active research in agarases, chitinases, and xylanases for biofuel and oligosaccharide production, while identifying areas like fucoidan and pectin hydrolases as needing further exploration.
To further support your goals related to marine carbohydrates, we offer a suite of complementary services and variations of our core offerings.
| Marine Glycomics Service | Marine Glycoproteomics Service | Bioactivity Analysis of Marine Glycan&Glycoprotein |
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What makes marine carbohydrate enzymes superior to terrestrial enzymes?
Marine environments are extreme, driving the evolution of enzymes with exceptional stability and activity under diverse conditions, including varying temperatures, pressures, and salinities.
What are the potential safety considerations when working with marine enzymes?
All our marine enzyme products undergo rigorous testing and quality control to ensure safety and compliance with industry standards. We provide comprehensive data and guidance for safe handling and application.
CD BioGlyco is your trusted partner for unlocking the vast potential of marine enzymes. Our unparalleled expertise, advanced technologies, and commitment to scientific excellence ensure that your projects are in the most capable hands. to co-develop precision biocatalysts for your sustainable product pipeline.
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