Maltotetraose-[UL-13C24]

Maltotetraose-[UL-13C24], a labeled oligosaccharide with diverse applications in bioscience and biotechnology, showcases its versatility and significance. Below are the key applications:

Metabolic Flux Analysis: Delving into the intricacies of metabolic studies, Maltotetraose-[UL-13C24] emerges as a pivotal tool for tracking carbon flow across various metabolic pathways within organisms. The labeled carbon atoms intricately trace the incorporation and degradation of the oligosaccharide in metabolic cascades, shedding light on metabolic fluxes and the intricate regulation of carbohydrate metabolism.

Enzyme Kinetics Studies: Unlocking the mysteries of enzyme kinetics, researchers harness Maltotetraose-[UL-13C24] to unravel the kinetic properties of enzymes integral to carbohydrate metabolism. Through meticulous observation of how this labeled substrate is processed by specific enzymes, profound insights into enzyme mechanisms, substrate specificity, and catalytic efficiency are unearthed. This acquired knowledge serves as a cornerstone for advancing enzyme-based applications and biocatalysts.

Gut Microbiota Research: Embarking on the frontier of gut microbiota exploration, Maltotetraose-[UL-13C24] takes center stage as a vital instrument for probing the digestion and fermentation of carbohydrates by the gut microbiota. Researchers leverage this labeled oligosaccharide to dissect how diverse microbial species within the gut metabolize specific carbohydrates, unraveling the intricate interplay between diet, the gut microbiome, and their repercussions on health and disease.

Structural Biology: Unveiling the mysteries of structural biology, Maltotetraose-[UL-13C24] emerges as a key player in elucidating the structure and dynamics of carbohydrate-binding proteins. Armed with a labeled oligosaccharide, researchers dive into nuclear magnetic resonance (NMR) spectroscopy and other cutting-edge techniques to explore the intricate dance of protein-carbohydrate interactions. This deep dive is essential for unraveling the molecular choreography of carbohydrate recognition and binding within biological systems, unveiling the intricate tapestry of structural biology.