D-galacturonic acid-[UL-13C6] potassium salt

D-galacturonic acid-[UL-13C6] potassium salt, an isotopically labeled compound, finds widespread utility in biochemical and analytical studies. Here are the key applications of D-galacturonic acid-[UL-13C6] potassium salt:

Metabolic Flux Analysis: Dive into the intricacies of cellular metabolism with this compound, a cornerstone of metabolic flux analysis. By integrating labeled D-galacturonic acid into the metabolic web, researchers trace the convoluted pathways of carbohydrate metabolism, quantifying the flow of carbon atoms through diverse routes. This meticulous mapping is indispensable for unraveling cellular metabolism intricacies and refining metabolic engineering strategies.

Isotope Tracer Studies: Unravel the mysteries of plant biology using D-galacturonic acid-[UL-13C6] potassium salt as a potent isotope tracer. This compound sheds light on plant cell wall biosynthesis and degradation dynamics, enabling researchers to monitor the incorporation and breakdown of galacturonic acid in pectin—a pivotal constituent of plant cell walls. These investigations yield profound insights into plant growth, development, and adaptive responses to environmental challenges.

Enzyme Kinetics: Delve into enzyme kinetics with precision using the isotopically labeled D-galacturonic acid. In enzyme kinetics studies, this compound serves as a vital tool for assessing the activity and specificity of pectin-degrading enzymes. By tracking the transformation of the labeled substrate, researchers unravel enzyme efficiency and mechanism intricacies. This knowledge forms the bedrock of industrial applications, fueling advancements in biofuel production and food processing technologies.

NMR Spectroscopy: Embark on a journey of molecular exploration with D-galacturonic acid-[UL-13C6] potassium salt, a linchpin for NMR (nuclear magnetic resonance) spectroscopy examinations of carbohydrate structures. The uniform carbon-13 labeling enhances spectral resolution, unraveling detailed insights into molecular conformation and dynamics. This breakthrough empowers advanced explorations in structural biology and intricate carbohydrate chemistry domains, opening new vistas of scientific inquiry.