EG434727 inhibitors are a class of chemical compounds specifically developed to inhibit the function of the EG434727 protein, which is known to play a pivotal role in cellular regulatory mechanisms, including enzymatic activity, signal transduction, and the control of protein-protein interactions. EG434727 is involved in modulating biochemical pathways that are critical for maintaining cellular balance and executing specialized cellular functions. The inhibitors of EG434727 are designed to bind to specific regions of the protein, such as the active site, where catalysis occurs, or allosteric sites that regulate protein conformational changes. By binding to these key areas, EG434727 inhibitors effectively block the protein's ability to interact with its natural substrates or other regulatory molecules, thus impeding its normal function. This inhibition can occur through competitive mechanisms, where the inhibitor directly competes with the substrate, or through non-competitive mechanisms, altering the protein's shape and hindering its activity.
The development of EG434727 inhibitors requires a comprehensive understanding of the structural and functional properties of the target protein. Structural elucidation methods such as X-ray crystallography, cryo-electron microscopy (cryo-EM), and nuclear magnetic resonance (NMR) spectroscopy provide detailed insights into the three-dimensional conformation of EG434727, allowing researchers to identify specific binding sites and important functional regions. With this structural knowledge, computational approaches like molecular docking and molecular dynamics simulations are employed to predict how potential inhibitors interact with the protein, optimizing their binding affinity and selectivity. Structure-activity relationship (SAR) studies help guide modifications in the inhibitor's chemical structure to improve key properties, such as binding strength, specificity, and stability. The chemical diversity of EG434727 inhibitors is considerable, ranging from small organic molecules designed to occupy a specific binding pocket to larger, more complex compounds that interact with multiple domains of the protein. These inhibitors often include functional groups that facilitate interactions like hydrogen bonding, hydrophobic contacts, or van der Waals forces, ensuring precise targeting of EG434727. The successful development of these inhibitors involves combining structural analysis, computational design, and synthetic chemistry to effectively modulate the activity of EG434727 and explore its role in cellular regulatory pathways.
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| Product Name | CAS # | Catalog # | QUANTITY | Price | Citations | RATING |
|---|---|---|---|---|---|---|
Deferoxamine | 70-51-9 | sc-507390 | 5 mg | $255.00 | ||
Iron chelator directly inhibiting Fthl17c by forming stable complexes with ferric iron. Deferoxamine binds extracellularly, preventing iron entry into cells, consequently limiting the availability of iron for Fthl17c-mediated ferric iron binding activity and intracellular sequestering of iron ions in the cytoplasm. | ||||||
Deferiprone | 30652-11-0 | sc-211220 sc-211220A | 1 g 5 g | $124.00 $134.00 | 5 | |
Iron chelator influencing Fthl17c indirectly by forming complexes with ferrous iron. Deferiprone modulates iron availability, potentially impacting Fthl17c's ferrous iron binding activity and intracellular sequestering of iron ions. | ||||||
apo-Transferrin | 11096-37-0 | sc-391092 sc-391092A sc-391092B | 100 mg 500 mg 1 g | $153.00 $469.00 $744.00 | 1 | |
Iron-binding glycoprotein competing with Fthl17c for iron binding. Binds ferric iron extracellularly, limiting iron availability for Fthl17c-mediated ferric iron binding activity and intracellular sequestering of iron ions in the cytoplasm. | ||||||
Gallium(III) nitrate solution, Ga 9-10% w/w | 13494-90-1 | sc-300758 sc-300758A | 50 g 250 g | $135.00 $595.00 | ||
Iron analog inhibiting Fthl17c indirectly by disrupting cellular iron homeostasis. Gallium Nitrate interferes with iron-dependent processes, potentially impacting Fthl17c's ferric and ferrous iron binding activities and intracellular sequestering of iron ions in the cytoplasm. | ||||||
Ciclopirox | 29342-05-0 | sc-217893 | 25 mg | $207.00 | 2 | |
Iron-chelating antifungal impacting Fthl17c indirectly. Ciclopirox chelates iron ions, potentially influencing Fthl17c's ferric and ferrous iron binding activities and intracellular sequestering of iron ions in the cytoplasm by altering iron availability. | ||||||
Lactoferrin | 146897-68-9 | sc-394420 sc-394420A sc-394420B sc-394420C | 10 mg 50 mg 100 mg 1 g | $122.00 $408.00 $580.00 $1494.00 | ||
Iron-binding glycoprotein competing with Fthl17c for iron binding. Binds extracellularly, limiting iron availability for Fthl17c-mediated ferric and ferrous iron binding activities and intracellular sequestering of iron ions in the cytoplasm. | ||||||
Triapine | 200933-27-3 | sc-475303 | 10 mg | $300.00 | ||
Ribonucleotide reductase inhibitor influencing Fthl17c indirectly by affecting iron-dependent cellular processes. Triapine modulates iron availability, potentially impacting Fthl17c's ferric and ferrous iron binding activities and intracellular sequestering of iron ions in the cytoplasm. | ||||||
Deferasirox | 201530-41-8 | sc-207509 | 2.5 mg | $180.00 | 9 | |
Iron chelator affecting Fthl17c indirectly by forming complexes with ferric iron. Deferasirox modulates iron availability, potentially impacting Fthl17c's ferric and ferrous iron binding activities and intracellular sequestering of iron ions in the cytoplasm. | ||||||
2-Picolinic acid | 98-98-6 | sc-238205 sc-238205A sc-238205B | 5 g 100 g 1 kg | $24.00 $54.00 $345.00 | ||
Iron chelator affecting Fthl17c indirectly by forming complexes with iron ions. Picolinic Acid modulates iron availability, potentially impacting Fthl17c's ferric and ferrous iron binding activities and intracellular sequestering of iron ions in the cytoplasm. | ||||||