Date published: 2026-6-5

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PHKA2 Substrates

Santa Cruz Biotechnology now offers a broad range of PHKA2 Substrates for use in various applications. PHKA2 Substrates are essential tools in the study of phosphorylase kinase alpha 2 (PHKA2), a key regulatory subunit of phosphorylase kinase, which is involved in the regulation of glycogen metabolism. By using PHKA2 Substrates, researchers can investigate the activity and function of PHKA2 in the phosphorylation and activation of glycogen phosphorylase, an enzyme critical for glycogen breakdown. These substrates facilitate the detailed study of the biochemical pathways that control glycogenolysis and provide insights into how energy metabolism is regulated in different tissues and under various physiological conditions. In scientific research, PHKA2 Substrates are used to explore the molecular mechanisms underlying glycogen metabolism and how these processes are modulated during activities such as exercise, fasting, and stress response. Researchers employ these substrates to measure PHKA2 activity, analyze its interaction with other regulatory proteins, and understand its role in maintaining glucose homeostasis. By enabling precise measurement and manipulation of PHKA2 activity, these substrates support the development of experimental models to investigate the complex regulatory networks involved in metabolic control. View detailed information on our available PHKA2 Substrates by clicking on the product name.
Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

Na+/K+-ATPase α (Ser 943)

sc-24529
0.5 mg/0.1 ml
$96.00
(0)

Na+/K+-ATPase α (Ser 943) plays a crucial role in ion transport across cell membranes, specifically regulating sodium and potassium gradients. This enzyme exhibits unique phosphorylation dynamics at Ser 943, influencing its activity and stability. The interaction with ATP is characterized by rapid kinetics, allowing for efficient ion exchange. Its conformational flexibility enables distinct binding interactions with various substrates, contributing to its regulatory functions in cellular homeostasis.