Date published: 2026-4-1

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AADACL1 Substrates

Santa Cruz Biotechnology now offers a broad range of AADACL1 Substrates for use in various applications. AADACL1 substrates are specialized compounds used to study the enzyme acylamidase domain-containing 1 (AADACL1), which plays a crucial role in lipid metabolism, particularly in the hydrolysis of fatty acid amides. This enzyme is important for understanding the breakdown and regulation of bioactive lipids within cells. In scientific research, AADACL1 substrates are essential tools for investigating the enzyme's activity, specificity, and regulatory mechanisms. Researchers utilize these substrates to measure AADACL1 activity in various biological samples, including tissues, cell cultures, and purified enzyme preparations. By using high-purity AADACL1 substrates, scientists can obtain precise and reproducible data, which is critical for explaining the enzyme's role in metabolic pathways. These studies help to shed light on how AADACL1 influences lipid homeostasis, energy balance, and cellular signaling processes. Furthermore, AADACL1 substrates are valuable in exploring the effects of genetic mutations or pharmacological inhibitors on enzyme function, providing insights into the broader implications of altered lipid metabolism. By offering a comprehensive selection of these substrates, Santa Cruz Biotechnology supports the scientific community in advancing research on lipid metabolism and its impact on cellular physiology. View detailed information on our available AADACL1 Substrates by clicking on the product name.

SEE ALSO...

Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

2-thioacetyl MAGE

112014-15-0sc-205094
sc-205094A
1 mg
5 mg
$40.00
$180.00
(0)

2-thioacetyl MAGE serves as a substrate for the aadacl1 enzyme, characterized by its unique thiol group that enhances nucleophilic attack during enzymatic reactions. This compound exhibits distinct reactivity patterns, promoting specific acylation processes. Its structural attributes allow for effective transition state stabilization, influencing reaction kinetics and pathway selectivity. The presence of the thioacetyl moiety contributes to its unique interaction dynamics, facilitating precise enzymatic transformations.