Agilent, 103693-100, Seahorse XF Palmitate Oxidation Stress Test Kit

Seahorse XF Palmitate Oxidation Stress Test Kit. Each pack includes one (1) each of the following products: XF Long Chain Fatty Acid Oxidation Stress Test Kit (103672-100), XF Palmitate-BSA FAO Substrate (102720-100), and L-Carnitine 3 x 10 mg. For use with Seahorse XFe/XF96 and XF/XF24 analyzers.

Specifications:
Assay Wells: 3 x 96-well or 24-well assays
Assays per Kit: 3
For Use With: Seahorse XF Pro AnalyzerSeahorse XF96 AnalyzerSeahorse XFe24 AnalyzerSeahorse XFe96 Analyzer
Shipping Condition: Ambient Temperature

**********The following product description is generated by AI and is for reference only. If you have any questions, please contact customer service.**********
The Seahorse XF Palmitate Oxidation Stress Test Kit enables precise measurement of palmitate-driven mitochondrial respiration in live cells. This specialized assay is designed for use with Agilent Seahorse XF analyzers, providing a robust platform to study fatty acid oxidation kinetics and metabolic flexibility. By incorporating a physiological palmitate-BSA substrate, the kit allows researchers to evaluate cellular responses to metabolic stress and assess mitochondrial function under conditions relevant to metabolic disorders, obesity, diabetes, and cardiovascular disease.

Key components include pre-formulated reagents for seamless assay setup and consistent, reproducible results. The kit facilitates assessment of enzymatic steps involved in long-chain fatty acid oxidation, supporting investigations into inhibitors or activators of beta-oxidation, as well as cellular adaptations to nutrient changes or pharmacological interventions. It is suitable for a wide range of adherent or suspension cell types, providing versatility across multiple research models.

Optimized for seamless integration with the Seahorse XF platform, the kit complements other Seahorse metabolic stress test kits for comprehensive bioenergetic profiling. Detailed protocols and support resources streamline experimental design and data interpretation, enabling accurate assessment of mitochondrial and cellular energy metabolism in basic research or drug discovery applications.