POMZP3 inhibitors would fall under a niche category of chemical agents that are characterized by their ability to target and inhibit the function of the POMZP3 protein. The development of POMZP3 inhibitors would begin with the determination of the three-dimensional structure of the protein through techniques such as X-ray crystallography, NMR spectroscopy, or cryo-electron microscopy. These structural insights would provide the necessary information to identify active or binding sites that are amenable to small molecule interaction.
With a structural blueprint in hand, the next step in developing POMZP3 inhibitors would be to screen chemical libraries for molecules that can bind to the protein. High-throughput screening techniques could be employed to rapidly assess the interaction between large numbers of compounds and POMZP3. Once identified, these initial 'hit' compounds would undergo further testing to confirm their activity and to determine their efficacy in binding to and inhibiting POMZP3. This would typically involve a series of in vitro assays, such as competitive binding assays, to measure how well the compounds compete with natural substrates or ligands of the protein. Lead compounds that exhibit a high degree of specificity and potency in these preliminary tests would then be optimized through a medicinal chemistry approach. This approach involves making systematic modifications to the chemical structure of the compounds to improve their binding properties, increase their selectivity for POMZP3, and enhance their overall physicochemical characteristics, such as solubility and stability.
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| Product Name | CAS # | Catalog # | QUANTITY | Price | Citations | RATING |
|---|---|---|---|---|---|---|
Actinomycin D | 50-76-0 | sc-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 | |
Binds to DNA and, by doing so, inhibits RNA polymerase, which would reduce the transcription of any gene, including the fusion gene. | ||||||
α-Amanitin | 23109-05-9 | sc-202440 sc-202440A | 1 mg 5 mg | $260.00 $1029.00 | 26 | |
Targets RNA polymerase II, inhibiting mRNA synthesis, which would affect all genes transcribed by this polymerase. | ||||||
Doxorubicin | 23214-92-8 | sc-280681 sc-280681A | 1 mg 5 mg | $173.00 $418.00 | 43 | |
An anthracycline that intercalates into DNA, potentially inhibiting the transcription of many genes. | ||||||
5-Azacytidine | 320-67-2 | sc-221003 | 500 mg | $280.00 | 4 | |
A nucleoside analog that incorporates into DNA and RNA, disrupting methylation and potentially affecting gene expression. | ||||||
Mithramycin A | 18378-89-7 | sc-200909 | 1 mg | $54.00 | 6 | |
Binds to DNA and can interfere with transcription factor binding, affecting gene expression. | ||||||
Triptolide | 38748-32-2 | sc-200122 sc-200122A | 1 mg 5 mg | $88.00 $200.00 | 13 | |
Known to inhibit the transcription of a wide range of genes by affecting transcription factors. | ||||||
DRB | 53-85-0 | sc-200581 sc-200581A sc-200581B sc-200581C | 10 mg 50 mg 100 mg 250 mg | $42.00 $185.00 $310.00 $650.00 | 6 | |
Inhibits RNA polymerase II transcriptional elongation, which can reduce mRNA levels of many genes. | ||||||
Suberoylanilide Hydroxamic Acid | 149647-78-9 | sc-220139 sc-220139A | 100 mg 500 mg | $130.00 $270.00 | 37 | |
Another HDAC inhibitor that can lead to broad changes in gene expression, including downregulation. | ||||||
Rocaglamide | 84573-16-0 | sc-203241 sc-203241A sc-203241B sc-203241C sc-203241D | 100 µg 1 mg 5 mg 10 mg 25 mg | $270.00 $465.00 $1607.00 $2448.00 $5239.00 | 4 | |
Prevents translation initiation, affecting the synthesis of many proteins. | ||||||
Emetine | 483-18-1 | sc-470668 sc-470668A sc-470668B sc-470668C | 1 mg 10 mg 50 mg 100 mg | $352.00 $566.00 $1331.00 $2453.00 | ||
Inhibits protein synthesis by blocking ribosomal movement, which would impact all protein production. | ||||||