thiomuracin-a and thiocillin

thiomuracin-a has been researched along with thiocillin* in 2 studies

Reviews

1 review(s) available for thiomuracin-a and thiocillin

ArticleYear
Introduction to Thiopeptides: Biological Activity, Biosynthesis, and Strategies for Functional Reprogramming.
    Cell chemical biology, 2020, 08-20, Volume: 27, Issue:8

    Thiopeptides (also known as thiazolyl peptides) are structurally complex natural products with rich biological activities. Known for over 70 years for potent killing of Gram-positive bacteria, thiopeptides are experiencing a resurgence of interest in the last decade, primarily brought about by the genomic revolution of the 21st century. Every area of thiopeptide research-from elucidating their biological function and biosynthesis to expanding their structural diversity through genome mining-has made great strides in recent years. These advances lay the foundation for and inspire novel strategies for thiopeptide engineering. Accordingly, a number of diverse approaches are being actively pursued in the hope of developing the next generation of natural-product-inspired therapeutics. Here, we review the contemporary understanding of thiopeptide biological activities, biosynthetic pathways, and approaches to structural and functional reprogramming, with a special focus on the latter.

    Topics: Anti-Bacterial Agents; Biological Products; Gram-Positive Bacteria; Peptides; Peptides, Cyclic; Sulfhydryl Compounds; Thiazoles

2020

Other Studies

1 other study(ies) available for thiomuracin-a and thiocillin

ArticleYear
Thiopeptide Pyridine Synthase TbtD Catalyzes an Intermolecular Formal Aza-Diels-Alder Reaction.
    Journal of the American Chemical Society, 2019, 02-06, Volume: 141, Issue:5

    Thiopeptide pyridine synthases catalyze a multistep reaction involving a unique and nonspontaneous intramolecular aza-[4 + 2] cycloaddition between two dehydroalanines to forge a trisubstituted pyridine core. We discovered that the in vitro activity of pyridine synthases from the thiocillin and thiomuracin pathways are significantly enhanced by general base catalysis and that this broadly expands the enzymes substrate tolerance. Remarkably, TbtD is competent to perform an intermolecular cyclization in addition to its cognate intramolecular reaction, underscoring its versatility as a biocatalyst. These data provide evidence that pyridine synthases use a two-site substrate recognition model to engage and process their substrates.

    Topics: Biocatalysis; Cycloaddition Reaction; Molecular Structure; Nitric Oxide Synthase; Peptides; Peptides, Cyclic; Substrate Specificity; Thiazoles

2019