Creatine Phosphate Disodium Salt: A Vital Energy Substrate for Cellular Function and Biomedical Research

Discover the critical role of Creatine Phosphate Disodium Salt (CAS 922-32-7) in cellular energy buffering and its applications in advanced biomedical research. As a key component in ATP regeneration, this compound is indispensable for high-energy demand tissues and is sought after by researchers globally. Explore its properties and sourcing with us.

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Key Advantages of Creatine Phosphate Disodium Salt

Efficient ATP Regeneration

This compound directly participates in the reversible phosphorylation of creatine by creatine kinase, facilitating rapid ATP replenishment, a critical process for energy-intensive cellular activities and a key focus for researchers investigating cellular energy metabolism.

Crucial for Bioenergetic Studies

As a well-characterized substrate for creatine kinase, it is invaluable for researchers studying enzyme kinetics, metabolic pathways, and the phosphagen system, providing reliable results for your experiments when you buy from reputable suppliers.

Biomedical Research Support

Its role in cellular energy buffering makes it a subject of interest in various biomedical research areas, including muscle physiology and neurobiology. Partner with a trusted supplier to secure high-quality material for your critical research projects.

Applications in Scientific Research

Enzyme Assays

Utilized as a standard substrate for the accurate assay and kinetic studies of creatine kinase, ensuring reliable performance in your laboratory when purchased from a trusted manufacturer.

Cellular Bioenergetics

Investigate the dynamics of cellular energy metabolism and ATP buffering systems, a key area for understanding various physiological and pathological conditions.

Muscle Physiology Research

Study the mechanisms of energy supply and utilization in muscle tissue, essential for understanding muscle function and fatigue.

Neuroscience Research

Explore the energy demands and metabolic support in neural tissues, contributing to a deeper understanding of brain function.