Date published: 2025-10-25

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Stannin Inhibitors

Stannin inhibitors represent a class of chemical compounds that specifically interfere with the function or expression of the stannin protein. Stannin is a small, membrane-associated protein that plays a role in the regulation of cellular responses to metal toxicity, particularly in the context of metalloid compounds such as organotins. Organotins are a group of organic compounds containing tin, which have been implicated in various biological processes, often inducing toxicity within cells through mechanisms involving mitochondrial dysfunction and oxidative stress. Stannin is believed to facilitate the interaction between organotins and cellular components, possibly serving as a mediator in metal ion homeostasis. Stannin inhibitors, therefore, target this interaction, aiming to modulate the protein's role in metal ion regulation and its associated pathways. By interfering with stannin, these inhibitors have the potential to alter the cellular responses to certain environmental toxins and disrupt metal-related cellular signaling pathways.

The structure and function of stannin inhibitors vary widely depending on their mode of action and their affinity for the stannin protein or its related pathways. Structurally, many stannin inhibitors may be designed to bind directly to the protein, preventing its interaction with other cellular molecules, or they may modulate stannin expression at the genetic level. Inhibitors of this class can also affect downstream signaling pathways that are normally regulated by stannin, such as those involved in mitochondrial function and metal ion transport. The specificity and efficacy of these compounds can depend heavily on their molecular structure, which may determine how effectively they bind to their target sites within stannin-related mechanisms. Researchers continue to study stannin inhibitors to better understand their roles in fundamental biochemical pathways, focusing on the chemical interactions that govern metal toxicity and homeostasis in cells.

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Items 1 to 10 of 11 total

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Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

Lithium

7439-93-2sc-252954
50 g
$214.00
(0)

Influences GSK-3β signaling, which could affect SNN-associated pathways, altering neuronal viability.

SB-216763

280744-09-4sc-200646
sc-200646A
1 mg
5 mg
$70.00
$198.00
18
(1)

GSK-3β inhibitor, potentially modulating pathways that SNN may be involved in, affecting neuroprotection mechanisms.

LY 294002

154447-36-6sc-201426
sc-201426A
5 mg
25 mg
$121.00
$392.00
148
(1)

PI3K inhibitor, may impact Akt signaling, indirectly influencing SNN-related neuroprotection pathways.

Rapamycin

53123-88-9sc-3504
sc-3504A
sc-3504B
1 mg
5 mg
25 mg
$62.00
$155.00
$320.00
233
(4)

mTOR inhibitor, could affect autophagy and apoptotic pathways, potentially modulating SNN's cellular context.

Wnt-C59

1243243-89-1sc-475634
sc-475634A
sc-475634B
5 mg
10 mg
50 mg
$210.00
$320.00
$1250.00
1
(0)

Inhibitor of Wnt production, could alter Wnt signaling, potentially impacting SNN's cellular role.

PD 98059

167869-21-8sc-3532
sc-3532A
1 mg
5 mg
$39.00
$90.00
212
(2)

MEK inhibitor, could change downstream ERK signaling, indirectly affecting SNN's functional pathways.

SP600125

129-56-6sc-200635
sc-200635A
10 mg
50 mg
$40.00
$150.00
257
(3)

JNK inhibitor, may modulate stress responses, potentially influencing SNN's cellular roles.

SB 203580

152121-47-6sc-3533
sc-3533A
1 mg
5 mg
$88.00
$342.00
284
(5)

p38 MAPK inhibitor, could impact inflammatory signaling pathways associated with SNN's cellular context.

SB 431542

301836-41-9sc-204265
sc-204265A
sc-204265B
1 mg
10 mg
25 mg
$80.00
$212.00
$408.00
48
(1)

Casein kinase 1 inhibitor, may affect Wnt signaling and other pathways, potentially influencing SNN's role.

Chelerythrine chloride

3895-92-9sc-3547
sc-3547A
5 mg
25 mg
$88.00
$311.00
17
(1)

PKC inhibitor, could alter signaling pathways that involve SNN, affecting its cellular context.