Fexapotide Triflutate features a peptide-like structure enriched with functional diversity influencing solubility and binding interactions. Researchers investigate its conformational properties and hydrogen-bond networks. Its structural behaviors inform ligand and sequence optimization. Applications include molecular-recognition studies, structural biology, and peptide engineering.
CAT No: R2714
CAS No:1609252-56-3
Synonyms/Alias:Fexapotide triflutate;Fexapotide triflutate [USAN];UNII-98LVA678ME;98LVA678ME;NX-1207 TRIFLUOROACETATE;1609252-56-3;Fexapotide triflutate (USAN);FEXAPOTIDE TRIFLUTATE [WHO-DD];ILE-ASP-GLN-GLN-VAL-LEU-SER-ARG-ILE-LYS-LEU-GLU-ILE-LYS-ARG-CYS-LEU TRIFLUOROACETATE;L-LEUCINE, L-ISOLEUCYL-L-.ALPHA.-ASPARTYL-L-GLUTAMINYL-L-GLUTAMINYL-L-VALYL-L-LEUCYL-L-SERYL-L-ARGINYL-L-ISOLEUCYL-L-LYSYL-L-LEUCYL-L-.ALPHA.-GLUTAMYL-L-ISOLEUCYL-L-LYSYL-L-ARGINYL-L-CYSTEINYL-, 2,2,2-TRIFLUOROACETATE (1:5);L-Leucine, L-isoleucyl-L-alpha-aspartyl-L-glutaminyl-L-glutaminyl-L-valyl-L-leucyl-L-seryl-L-arginyl-L-isoleucyl-L-lysyl-L-leucyl-L-alpha-glutamyl-L-isoleucyl-L-lysyl-L-arginyl-L-cysteinyl-, 2,2,2-trifluoroacetate (1:5);CHEMBL3707309;D11248;L-isoleucyl-L-alpha-aspartyl-L-glutaminyl-L-glutaminyl-L-valyl-L-leucyl-L-seryl-L-arginyl-L-isoleucyl-L-lysyl-L-leucyl-L-alpha-glutamyl-L-isoleucyl-L-lysyl-L-arginyl-L-cysteinyl-L-leucine pentakis(2,2,2-trifluoroacetate);
Fexapotide Triflutate is a synthetic peptide-based compound that has garnered significant interest within the scientific and research communities due to its unique molecular structure and targeted biological activity. Designed to interact with specific cellular pathways, Fexapotide Triflutate stands out for its selective mechanism of action, enabling researchers to investigate cell signaling dynamics with high precision. Its stability and solubility in various aqueous environments further facilitate its integration into a range of experimental protocols, making it a versatile tool for laboratory studies. As a research-grade molecule, it is frequently utilized in experimental models to elucidate complex biochemical processes, offering valuable insights into tissue-specific interactions and cellular responses. The compound's characteristics have paved the way for its adoption in multiple research disciplines, where it serves both as a subject of study and as a functional reagent to modulate biological systems.
Cellular Pathway Analysis: Fexapotide Triflutate is widely employed in the exploration of intracellular signaling pathways. By applying this compound to cultured cell models, researchers can dissect the downstream effects of peptide-mediated regulation on cell proliferation, apoptosis, and differentiation. Its ability to modulate key signaling molecules allows for the identification of novel regulatory nodes within complex cellular networks, thereby advancing the understanding of fundamental cell biology. The specificity of its action provides a controlled environment to analyze pathway perturbations, supporting the development of new hypotheses regarding signal transduction and cellular adaptation.
Prostate Biology Research: In the context of prostate tissue studies, Fexapotide Triflutate serves as a valuable agent for examining glandular cellular dynamics and tissue remodeling. Researchers utilize it to investigate the molecular mechanisms underlying prostate growth, maintenance, and cellular turnover. Its targeted activity enables the study of stromal-epithelial interactions and the elucidation of factors influencing tissue architecture. Such investigations contribute to a more comprehensive understanding of prostate biology, facilitating the identification of potential molecular targets for future research endeavors.
Fibrosis and Tissue Remodeling Studies: The role of Fexapotide Triflutate in modulating extracellular matrix components has made it a compound of interest in research focused on fibrosis and tissue remodeling. Experimental models employing this peptide allow scientists to assess changes in collagen deposition, matrix metalloproteinase activity, and fibroblast behavior. By influencing these parameters, the compound aids in unraveling the molecular events driving fibrotic progression and tissue repair, thereby supporting the development of innovative strategies for managing abnormal tissue remodeling in various organ systems.
Apoptosis and Cell Death Mechanisms: Researchers investigating programmed cell death frequently incorporate Fexapotide Triflutate into their experimental designs to probe the induction and regulation of apoptosis. Its interaction with cellular effectors involved in apoptotic pathways provides a platform for dissecting the sequence of molecular events leading to cell death. By manipulating its concentration and exposure time, scientists can study dose-dependent effects and identify critical checkpoints within the apoptotic cascade, contributing to a deeper understanding of cell fate decisions in health and disease.
Pharmacodynamic and Toxicological Profiling: Fexapotide Triflutate is also utilized in preclinical research to assess its pharmacodynamic properties and potential toxicological effects. By administering the compound in various in vitro and ex vivo systems, researchers can monitor its distribution, metabolism, and cellular impact. These studies are essential for establishing baseline safety profiles and understanding the compound's interaction with biological membranes and metabolic enzymes. The data generated from such investigations provide a foundation for further research into the compound's utility and limitations across diverse experimental settings. As research continues to progress, Fexapotide Triflutate remains an indispensable tool for advancing knowledge in molecular biology, tissue engineering, and pharmacological sciences.
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