orthosteric ligands

By Targets:	Cannabinoid Receptor (3)
By Research Areas:	Neurological Disease (1)

Targets Recommended: Ligands for Target Protein for PROTAC Ligands for E3 Ligase Target Protein Ligand-Linker Conjugates E3 Ligase Ligand-Linker Conjugates

Cat. No.	Product Name	Target	Research Areas	Chemical Structure

HY-147558

CB1R Allosteric modulator 1	Cannabinoid Receptor	Others
CB1R Allosteric modulator 1 (compound 11) is a potent CB1R allosteric modulator. CB1R Allosteric modulator 1 shows negatively affects the functional activity of orthosteric ligands (NAM) at CB1Rs .

HY-147559

CB1R Allosteric modulator 2	Cannabinoid Receptor	Others
CB1R Allosteric modulator 2 (compound 18) is a potent CB1R allosteric modulator. CB1R Allosteric modulator 2 shows negatively affects the functional activity of orthosteric ligands (NAM) at CB1Rs .

HY-144705

GAT564	Cannabinoid Receptor	Neurological Disease
GAT564 (Compound 15d) is a potent allosteric modulator of cannabinoid 1 receptor (CB1R) with EC₅₀s of 87 and 320 nM respectively for cAMP and β-arrestin2. GAT564 markedly promotes orthosteric ligand binding to hCB1R. GAT564 is efficacious as a topical agent that significantly reduces intraocular pressure (IOP) in the ocular normotensive murine model of glaucoma .

Cat. No.	Product Name

HY-L170

Allosteric Modulators (AMs) Compound Library	180 compounds
An emerging drug design method is based on the secondary binding site effect, where small molecule drugs are designed to bind to secondary binding sites on target biomolecules rather than primary orthomorphic sites. Successful potential drugs (known as allosteric modulators) will be able to bind to allosteric sites and remotely alter (or modify) the conformation of the main orthosteric binding sites of biological targets. Allosteric modulators (AMs) are ligands of proteins that act through binding sites different from natural (orthosteric) ligand sites. AMs are relatively small, more lipophilic, and more rigid compounds. The binding efficacy of AMs with their targets is often slightly lower. AMs are divided into positive AMs (PAMs) and negative AMs (NAMs). AMs are ideal drug targets because they can fine-tune receptor activity while preserving the spatial and temporal signal transduction characteristics of endogenous ligands, resulting in fewer targeted side effects, improved subtype selectivity, and better promotion of biased signal transduction than normal ligands. MCE designs a unique collection of 180 small allosteric modulators. It is a good tool to be used for research on metabolize, cancer and other diseases.

Allosteric Modulators (AMs) Compound Library

180 compounds

An emerging drug design method is based on the secondary binding site effect, where small molecule drugs are designed to bind to secondary binding sites on target biomolecules rather than primary orthomorphic sites. Successful potential drugs (known as allosteric modulators) will be able to bind to allosteric sites and remotely alter (or modify) the conformation of the main orthosteric binding sites of biological targets. Allosteric modulators (AMs) are ligands of proteins that act through binding sites different from natural (orthosteric) ligand sites. AMs are relatively small, more lipophilic, and more rigid compounds. The binding efficacy of AMs with their targets is often slightly lower. AMs are divided into positive AMs (PAMs) and negative AMs (NAMs). AMs are ideal drug targets because they can fine-tune receptor activity while preserving the spatial and temporal signal transduction characteristics of endogenous ligands, resulting in fewer targeted side effects, improved subtype selectivity, and better promotion of biased signal transduction than normal ligands.

MCE designs a unique collection of 180 small allosteric modulators. It is a good tool to be used for research on metabolize, cancer and other diseases.

Cat. No.	Product Name	Target	Research Area

HY-158104

LPPM-8	Peptides	Others
LPPM-8 is a ligand of Med25 and an inhibitor of Med25 protein-protein interactions (PPIs). LPPM-8 engages Med25 through interaction with the H2 face of its Activator Interaction Domain and stabilizes full-length protein in the cellular proteome. LPPM-8 is an orthosteric inhibitor of H2-binding transcriptional activators (such as ATF6a). LPPM-8 can be used for studying Med25 and Mediator complex biology .

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