Efonidipine: Unlocking the Power of Calcium Channel Regulation

Efonidipine, also known as NZ-105, is a remarkable dihydropyridine compound that stands out as a unique calcium channel blocker. Unlike traditional calcium channel blockers, Efonidipine has the remarkable ability to target both T-type and L-type calcium channels, making it a versatile and highly sought-after compound in the realm of pharmaceutical research and development.

With a chemical formula of C34H38N3O7P and a molecular weight of 631.66, Efonidipine boasts a purity of 99.08%, ensuring consistent and reliable results in your research endeavors. Its solid form and density of 1.3 g/cm3 make it a stable and easy-to-handle compound, while its flash point of 405.5°C underscores its thermal stability and safety during storage and use.

Unlocking the Potential of Calcium Channel Regulation

Calcium channels play a crucial role in a wide range of physiological processes, from regulating muscle contraction to modulating neuronal signaling. Efonidipine's dual-channel blocking capabilities set it apart, allowing researchers to explore innovative therapeutic approaches targeting both T-type and L-type calcium channels simultaneously.

This unique property of Efonidipine opens up new avenues for the development of groundbreaking treatments for cardiovascular disorders, neurological conditions, and other health concerns where calcium channel dysregulation is a contributing factor. By precisely controlling calcium influx through these distinct channel types, Efonidipine holds the promise of more effective and targeted therapies, potentially improving patient outcomes and quality of life.

Versatile Applications in Pharmaceutical Research

Efonidipine's exceptional characteristics make it a valuable asset in the pharmaceutical industry, where researchers are constantly seeking innovative compounds to address unmet medical needs. Its dual-channel blocking ability allows for the exploration of novel therapeutic approaches, expanding the horizons of drug discovery and development.

In the realm of cardiovascular research, Efonidipine has demonstrated potential in the management of hypertension, angina, and other heart-related conditions. By modulating calcium homeostasis, this compound may contribute to the development of more effective antihypertensive and antianginal therapies, potentially improving cardiovascular health and reducing the burden of these prevalent diseases.

Beyond the cardiovascular domain, Efonidipine's versatility extends to the treatment of neurological disorders. Its ability to regulate T-type and L-type calcium channels may hold promise in the management of conditions such as epilepsy, Parkinson's disease, and chronic pain, where calcium channel dysregulation plays a significant role.

Ensuring Long-Term Stability and Integrity

To maintain the exceptional quality and purity of Efonidipine, it is essential to adhere to the recommended storage conditions. For long-term storage, the compound should be kept as a powder at -20°C for up to 3 years. If stored in a solvent, the recommended storage temperature is -80°C, with a shelf life of up to 1 year.

By following these guidelines, you can be confident that Efonidipine will retain its potency and reliability, enabling you to conduct your research with the utmost precision and confidence. Proper handling and storage are crucial to unlocking the full potential of this remarkable calcium channel blocker and driving scientific progress forward.

Explore the Possibilities with Efonidipine

As a seasoned eCommerce copywriter and SEO expert, I invite you to explore the boundless possibilities that Efonidipine holds for your research endeavors. This versatile compound, with its unique dual-channel blocking capabilities, stands as a testament to the power of innovation in the pharmaceutical and scientific realms.

Whether you are working on groundbreaking cardiovascular therapies, investigating novel neurological treatments, or seeking to push the boundaries of calcium channel regulation, Efonidipine is a compound that deserves your attention. Unlock the potential of this remarkable molecule and embark on a journey of discovery that could lead to transformative advancements in human