The Perfect Affielisa® Mouse Endothelin-1 Elisa [ Edn1] Now 60% Cheaper [1eEHrWct]

AffiELISA® Mouse Endothelin-1 ELISA [Edn1]

The AffiELISA® Mouse Endothelin-1 ELISA [Edn1] is a highly sensitive and specific assay designed to measure Endothelin-1 (ET-1) in mouse serum, plasma, and tissue culture supernatants. This kit offers a reliable and convenient method for researchers studying cardiovascular diseases, inflammation, and other conditions where ET-1 plays a critical role. With its exceptional accuracy and ease of use, the AffiELISA® kit is a valuable tool for researchers in various fields of biology and medicine.

Product Features and Benefits

The AffiELISA® kit boasts several key features that make it a standout choice for Endothelin-1 measurement. First, it utilizes a highly specific monoclonal antibody pair to ensure accurate and reproducible results. This specificity is crucial for researchers who require precise measurements of ET-1 levels. Additionally, the kit offers a wide detection range, allowing for the quantification of ET-1 concentrations from 7.8 pg/ml to 500 pg/ml. The inclusion of all necessary reagents and detailed instructions in the kit simplifies the experimental process, saving time and reducing the potential for user error.

• High specificity: Utilizes a monoclonal antibody pair for accurate ET-1 measurement.
• Wide detection range: Quantifies ET-1 concentrations from 7.8 pg/ml to 500 pg/ml.
• Convenience: Complete kit with all necessary reagents and detailed instructions.

Practical Applications and Target Audience

The AffiELISA® Mouse Endothelin-1 ELISA [Edn1] is an indispensable tool for researchers involved in the study of cardiovascular diseases, such as hypertension and atherosclerosis. Its ability to detect ET-1 levels in various biological samples makes it valuable for investigating the role of ET-1 in inflammation, cancer, and other diseases. Whether you are a researcher in academia or an industry professional, the AffiELISA® kit can help you advance your research and contribute to a better understanding of ET-1's complex physiological functions.