Date published: 2026-2-14

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Vmn2r82 Inhibitors

Vmn2r82 can exert their inhibitory effects through various mechanisms, primarily by binding to the receptor's ligand-binding site or altering receptor conformation to prevent proper functioning. For instance, an Olfactory receptor 7D4 antagonist has the capability to bind directly to the Vmn2r82, blocking the natural ligand from engaging with its binding site, thereby inhibiting any subsequent signal transduction. Similarly, Methyl anthranilate can occupy the receptor site, effectively preventing activation of Vmn2r82 by its natural ligand. Another inhibitor, Copper sulfate, can bind to the receptor with high affinity, potentially leading to a conformational change that inhibits the functionality of Vmn2r82. Thiol reagents, like Mercaptoethanol, can form disulfide bonds with cysteine residues in Vmn2r82, potentially altering its conformation and leading to inhibition. Furthermore, Zinc sulfate can bind to receptor or allosteric sites, which would inhibit Vmn2r82 activity.

Diethyl pyrocarbonate (DEPC) can modify histidine residues, and if Vmn2r82 possesses critical histidine residues for activity, this chemical modification can result in inhibited receptor function. Phenylmethanesulfonyl fluoride (PMSF), by irreversibly inhibiting serine residues, can prevent the proper functioning of Vmn2r82 if it relies on serine for ligand interaction or activation. Sodium orthovanadate, by inhibiting protein tyrosine phosphatases, could prevent the activation of Vmn2r82. N-Ethylmaleimide (NEM) targets free sulfhydryl groups on cysteine residues, and if these residues are essential for the activity of Vmn2r82, their alkylation by NEM would result in inhibition. Suramin, known to inhibit various G-protein-coupled receptors, could prevent proper G-protein interaction or signal transduction necessary for Vmn2r82 function. Methiothepin can block the active or allosteric sites of Vmn2r82, assuming structural similarities with serotonin receptors. Lastly, Iodoacetamide can inhibit Vmn2r82 by alkylating thiol groups, modifying cysteine residues critical for receptor structure or function. Through these diverse mechanisms, each chemical can contribute to the inhibition of the Vmn2r82 protein.

SEE ALSO...

Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

Copper(II) sulfate

7758-98-7sc-211133
sc-211133A
sc-211133B
100 g
500 g
1 kg
$46.00
$122.00
$189.00
3
(1)

Known to bind with high affinity to several olfactory receptor proteins, potentially it would inhibit Vmn2r82 by altering the receptor conformation and preventing ligand binding.

Zinc

7440-66-6sc-213177
100 g
$48.00
(0)

Zinc ions have been shown to inhibit olfactory receptor activity by binding to receptor sites or nearby allosteric sites, which could inhibit Vmn2r82 by similar mechanisms.

Sodium Orthovanadate

13721-39-6sc-3540
sc-3540B
sc-3540A
5 g
10 g
50 g
$49.00
$57.00
$187.00
142
(4)

A general inhibitor of protein tyrosine phosphatases, sodium orthovanadate could inhibit Vmn2r82 if it requires dephosphorylation for activation.

N-Ethylmaleimide

128-53-0sc-202719A
sc-202719
sc-202719B
sc-202719C
sc-202719D
1 g
5 g
25 g
100 g
250 g
$22.00
$69.00
$214.00
$796.00
$1918.00
19
(1)

NEM alkylates free sulfhydryl groups on cysteine residues; if Vmn2r82 has essential cysteine residues for its activity, NEM could inhibit the receptor function by modifying these groups.

α-Iodoacetamide

144-48-9sc-203320
25 g
$255.00
1
(1)

This reagent alkylates thiol groups and could inhibit Vmn2r82 by modifying cysteine residues critical for receptor structure or function.