MUP19 inhibitors are a specialized class of chemical compounds developed to specifically target and inhibit the function of Major Urinary Protein 19 (MUP19). MUP19 is a part of the extensive major urinary protein family, which plays a significant role in the binding and transport of pheromones and other small volatile molecules, predominantly in the context of mammalian biology. These proteins are essential in mediating chemical communication, contributing to a range of biological and social behaviors. MUP19, in particular, is distinguished within this family for its unique structural properties and its specific affinity for certain scent molecules. This specialization in binding affinities plays a vital role in the modulation and transport of chemical signals. The development of MUP19 inhibitors involves a comprehensive understanding of the protein's molecular structure, its ligand-binding dynamics, and the mechanisms through which it influences the release and transport of these compounds. The goal in creating these inhibitors is to disrupt the typical binding interactions between MUP19 and its ligands, a task that demands precise molecular engineering. This involves designing compounds that can specifically target and bind to critical functional sites on the MUP19 protein, thus inhibiting its natural role in scent molecule transport and release.
The process of developing MUP19 inhibitors is a complex and interdisciplinary endeavor, blending insights from biochemistry, molecular biology, and medicinal chemistry. Researchers involved in this field start by dissecting the structural characteristics of MUP19, with a particular focus on its ligand-binding sites. Understanding the molecular configuration of these sites is crucial for designing inhibitors that can selectively target and effectively block these sites, thereby preventing MUP19's typical function. The interaction between the MUP19 inhibitors and the protein is a critical component of their functionality. The inhibitors must bind to MUP19 in a way that alters its usual ligand-binding activity, often resulting in the formation of a complex between the inhibitor and specific regions on the protein. This interaction demands a precise congruence of the molecular structures of the inhibitor and MUP19. In addition to binding affinity, the development of MUP19 inhibitors also takes into account the compound's stability, solubility, and its ability to efficiently reach and interact with the target site within biological systems. Researchers also consider the pharmacokinetic properties of these inhibitors, ensuring they possess appropriate hydrophobic and hydrophilic characteristics, and that their molecular size and shape are conducive for efficient protein interaction. The creation of MUP19 inhibitors represents a significant advancement in the field of molecular targeting and inhibition, highlighting the sophistication and intricacy involved in designing specific protein inhibitors in the realm of biochemistry and pharmacology.
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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 | |
Actinomycin D binds to DNA and inhibits RNA polymerase, which can prevent transcription of genes, potentially including MUP19. | ||||||
α-Amanitin | 23109-05-9 | sc-202440 sc-202440A | 1 mg 5 mg | $260.00 $1029.00 | 26 | |
α-Amanitin inhibits RNA polymerase II, which is responsible for mRNA synthesis, potentially reducing the expression of many genes. | ||||||
Triptolide | 38748-32-2 | sc-200122 sc-200122A | 1 mg 5 mg | $88.00 $200.00 | 13 | |
Triptolide has been shown to inhibit the transcription of a wide range of genes by affecting RNA polymerase II activity. | ||||||
Chloroquine | 54-05-7 | sc-507304 | 250 mg | $68.00 | 2 | |
Chloroquine can interfere with lysosomal activity and DNA replication, which might non-specifically reduce gene expression. | ||||||
Flavopiridol | 146426-40-6 | sc-202157 sc-202157A | 5 mg 25 mg | $78.00 $254.00 | 41 | |
Flavopiridol inhibits cyclin-dependent kinases, which could potentially lead to cell cycle arrest and reduced gene expression. | ||||||
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 | |
DRB is a potent inhibitor of RNA polymerase II phosphorylation, which can suppress transcription initiation. | ||||||
A 922500 | 959122-11-3 | sc-203793 | 10 mg | $265.00 | 2 | |
Oxamflatin is a histone deacetylase inhibitor, altering chromatin structure and potentially down-regulating gene expression. | ||||||
1-β-D-Arabinofuranosylcytosine | 147-94-4 | sc-201628 sc-201628A sc-201628B sc-201628C sc-201628D | 1 g 5 g 25 g 100 g 250 g | $147.00 $258.00 $508.00 $717.00 $1432.00 | 1 | |
1-β-D-Arabinofuranosylcytosine is a nucleoside analog that can be incorporated into DNA, leading to chain termination during DNA replication. | ||||||
Siomycin A | 12656-09-6 | sc-202339 sc-202339-CW sc-202339A sc-202339B | 500 µg 500 µg 2.5 mg 25 mg | $439.00 $449.00 $1326.00 $10200.00 | 4 | |
Siomycin A is a thiazole antibiotic that inhibits FoxM1, a transcription factor involved in cell cycle regulation. | ||||||
5-Aza-2′-Deoxycytidine | 2353-33-5 | sc-202424 sc-202424A sc-202424B | 25 mg 100 mg 250 mg | $214.00 $316.00 $418.00 | 7 | |
Decitabine is incorporated into DNA where it inhibits DNA methyltransferase, potentially affecting gene expression patterns. | ||||||