Explore the Potential with AI-Driven Innovation
The specialised, focused library is developed on demand with the most recent virtual screening and parameter assessment technology, guided by the Receptor.AI drug discovery platform. This approach exceeds the capabilities of traditional methods and offers compounds with higher activity, selectivity, and safety.
We carefully select specific compounds from a vast collection of over 60 billion molecules in virtual chemical space. Our partner Reaxense helps in synthesizing and delivering these compounds.
In the library, a selection of top modulators is provided, each marked with 38 ADME-Tox and 32 parameters related to physicochemical properties and drug-likeness. Also, every compound comes with its best docking poses, affinity scores, and activity scores, providing a comprehensive overview.
Our top-notch dedicated system is used to design specialised libraries for enzymes.
Fig. 1. The sreening workflow of Receptor.AI
The procedure entails thorough molecular simulations of the catalytic and allosteric binding pockets, accompanied by ensemble virtual screening that factors in their conformational flexibility. When developing modulators, the structural modifications brought about by reaction intermediates are factored in to optimize activity and selectivity.
Our library distinguishes itself through several key aspects:
partner
Reaxense
upacc
Q9Y6K5
UPID:
OAS3_HUMAN
Alternative names:
p100 OAS
Alternative UPACC:
Q9Y6K5; Q2HJ14; Q9H3P5
Background:
2'-5'-oligoadenylate synthase 3, also known as p100 OAS, plays a pivotal role in the cellular defense against viral infections. It activates the antiviral enzyme RNase L, leading to the degradation of viral RNA. This enzyme is effective against a range of viruses including Chikungunya, Dengue, and Sindbis virus, showcasing its broad antiviral activity.
Therapeutic significance:
Understanding the role of 2'-5'-oligoadenylate synthase 3 could open doors to potential therapeutic strategies. Its ability to mediate antiviral effects through RNase L-dependent and independent pathways offers a promising avenue for developing novel antiviral therapies.