Date published: 2025-12-18

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82-FIP Inhibitors

82-FIP Inhibitors are a unique class of chemical compounds specifically designed to interact with the 82-FIP protein, a molecular entity involved in various cellular processes, particularly those related to intracellular signaling and protein-protein interactions. These inhibitors function by binding to key regions of the 82-FIP protein, thereby altering its conformation or blocking its interaction with other cellular components. The binding of 82-FIP Inhibitors is often highly selective, relying on the precise molecular structure of the inhibitor to fit into specific binding sites on the 82-FIP protein. This interaction can prevent the protein from adopting its active conformation or hinder its ability to engage in its normal biological functions. The specificity of these inhibitors is typically achieved through careful molecular design, incorporating structural motifs that complement the unique features of the 82-FIP protein's binding pockets.

The chemical characteristics of 82-FIP Inhibitors, such as their molecular weight, solubility, and stability, are critical for their effectiveness in targeting the 82-FIP protein. These inhibitors are often designed with hydrophobic and hydrophilic regions that allow them to interact optimally with both the protein's surface and any potential aqueous environment in which they might operate. Additionally, the inhibitors may contain specific functional groups, such as aromatic rings or polar substituents, that enable them to form strong non-covalent interactions, like hydrogen bonds or van der Waals forces, with the 82-FIP protein. The kinetics of these interactions, including how quickly the inhibitor binds to and dissociates from the 82-FIP protein, are crucial factors that influence the overall impact of the inhibitor on the protein's function. By understanding these interactions, researchers can gain valuable insights into the role of the 82-FIP protein in cellular processes and the broader implications of modulating its activity at the molecular level.

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Items 1 to 10 of 12 total

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Product NameCAS #Catalog #QUANTITYPriceCitationsRATING

Mithramycin A

18378-89-7sc-200909
1 mg
$54.00
6
(1)

An inhibitor of Sp1 DNA-binding activity, potentially influencing gene expression relevant to NUFIP2 function.

Actinomycin D

50-76-0sc-200906
sc-200906A
sc-200906B
sc-200906C
sc-200906D
5 mg
25 mg
100 mg
1 g
10 g
$73.00
$238.00
$717.00
$2522.00
$21420.00
53
(3)

Interferes with RNA polymerase, potentially affecting RNA metabolism and indirectly NUFIP2 activity.

Fluorouracil

51-21-8sc-29060
sc-29060A
1 g
5 g
$36.00
$149.00
11
(1)

A nucleotide analogue that affects RNA processing, potentially impacting NUFIP2-related pathways.

Leptomycin B

87081-35-4sc-358688
sc-358688A
sc-358688B
50 µg
500 µg
2.5 mg
$105.00
$408.00
$1224.00
35
(2)

Inhibits nuclear export, potentially affecting NUFIP2's role in RNA transport.

Rapamycin

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

An mTOR inhibitor, may influence pathways associated with RNA metabolism and indirectly NUFIP2.

Temozolomide

85622-93-1sc-203292
sc-203292A
25 mg
100 mg
$89.00
$250.00
32
(1)

An alkylating agent, can affect RNA transcription and processing, potentially impacting NUFIP2.

Spliceostatin A

391611-36-2sc-507481
1 mg
$1800.00
(0)

A splicing inhibitor, potentially affecting RNA splicing processes relevant to NUFIP2's function.

Pladienolide B

445493-23-2sc-391691
sc-391691B
sc-391691A
sc-391691C
sc-391691D
sc-391691E
0.5 mg
10 mg
20 mg
50 mg
100 mg
5 mg
$290.00
$5572.00
$10815.00
$25000.00
$65000.00
$2781.00
63
(2)

Another splicing inhibitor, could indirectly influence NUFIP2 through impacts on RNA splicing.

CX-5461

1138549-36-6sc-507275
5 mg
$240.00
(0)

Inhibits RNA Polymerase I, potentially affecting ribosomal RNA synthesis and indirectly NUFIP2.

DRB

53-85-0sc-200581
sc-200581A
sc-200581B
sc-200581C
10 mg
50 mg
100 mg
250 mg
$42.00
$185.00
$310.00
$650.00
6
(1)

Inhibits RNA polymerase II, potentially impacting RNA processing and NUFIP2's function.