In the central nervous system, voltage-gated sodium channels are responsible for the formation and conduction of neuronal action potentials, and they are essential membrane proteins for neurons. Sodium channels play a central role in physiology: they can rapidly transmit depolarizing impulses throughout cells and cellular networks, enabling the coordination of higher processes ranging from movement to cognition. Sodium ion channels are therefore considered to be an important component in nociception. The selective Nav1.7 channel blockers are important novel analgesics.
Aiming to discover new Nav1.7 channel blockers, BOC Sciences can design a novel sodium ion channel library using the knowledge of voltage-gated targeted library construction.
Figure 1. Schematic depictions of the Na channel α subunit. (Bourinet, E.; et al. 2014)
We have employed a set of substructure queries and 2D-fingerprints based on common structural motifs and pharmacophores to search the CD BioScience HTS compounds collections. Our team has performed a comprehensive analysis of known sodium channel blockers and carefully selected more than 6,000 of the most promising drug-like structures.
Figure 2. Subunit structure of voltage-gated sodium channels. (Catterall, W. A. 2012)
Table1. Physicochemical parameters for the BOC Sciences Sodium Ion Channel Library
Parameter | Value |
Molecular weight | 200-600 |
LogP | 0-6 |
Fsp3 | 0-0.6 |
PSA | 0-120 |
Lead-likeness | 67% |
BOC Sciences provides professional, rapid and high-quality services of Sodium Ion Channel Library design at competitive prices for global customers. Personalized and customized services of Sodium Ion Channel Library design can satisfy any innovative scientific study demands. Our clients have direct access to our staff and prompt feedback to their inquiries. If you are interested in our services, please contact us immediately!
References
BOC Sciences has rich experience in working with global customers in custom library synthesis of compounds and generating small to medium-sized libraries of target compounds. Our knowledge in generating a large number of target molecules in a remarkably shorter time enables quick biological screenings for affinities. With the target properties in mind, we deliver target molecules, by applying our extensive knowledge in drug discovery.