Cartalax is a regulatory peptide complex associated with cartilage and connective-tissue motif research. Its sequence composition supports studies of chondrocyte signaling, extracellular-matrix synthesis, and redox balance in vitro. Researchers monitor structural integrity and receptor engagement under physiological conditions. Applications include tissue-regeneration modeling, peptide-therapy mechanistic work, and matrix-peptide interaction analysis.
CAT No: Z10-101-225
Synonyms/Alias:Ala-Glu-Asp; alanyl-glutamyl-aspartic acid; Cartalax; T-31 peptide; H-Ala-Glu-Asp-OH; SCHEMBL5324601; CHEBI:158137; GLXC-25918; L-Alanyl-L-glutamyl-L-aspartic acid; (2S)-2-[[(2S)-2-[[(2S)-2-aminopropanoyl]amino]-4-carboxybutanoyl]amino]butanedioic acid
Cartalax is a synthetic peptide compound derived from short-chain amino acid sequences designed to mimic naturally occurring regulatory peptides involved in tissue homeostasis. As a member of the peptide bioregulator family, Cartalax is recognized for its specificity in modulating cellular processes related to connective tissue and cartilage. Its biochemical structure enables targeted interactions with cellular components, making it a valuable tool for researchers investigating the molecular mechanisms underlying tissue regeneration, extracellular matrix maintenance, and peptide signaling pathways. Due to its unique functional profile, Cartalax has garnered significant interest in peptide-based research, supporting advanced studies in molecular biology and tissue engineering.
Peptide functional studies: Cartalax serves as an important probe for elucidating the biological roles of short regulatory peptides in connective tissue. Researchers employ this compound to investigate how peptide sequences influence gene expression, protein synthesis, and the regulation of extracellular matrix components in cellular models. By enabling the controlled study of peptide-mediated signaling, it contributes to a deeper understanding of tissue-specific regulation and the molecular basis of cartilage physiology.
Cartilage metabolism research: The compound is frequently utilized in studies focused on cartilage biochemistry and the dynamic processes governing tissue remodeling. Its ability to interact with chondrocytes and associated matrix molecules makes it a useful tool for examining the synthesis and turnover of proteoglycans, collagen, and other key structural proteins. These investigations provide valuable insights into the pathways that maintain cartilage integrity and address questions related to degenerative tissue changes.
Tissue engineering applications: In the context of regenerative medicine research, Cartalax is applied to experimental models exploring scaffold-based cartilage reconstruction and the optimization of bioengineered tissues. Its peptide structure allows for incorporation into hydrogels, matrices, or cell culture systems, where it can modulate cellular proliferation, differentiation, and matrix deposition. Such studies advance the development of innovative strategies for tissue repair and functional restoration.
Peptide synthesis and analytical method development: The compound is also relevant in the optimization of peptide synthesis protocols and analytical techniques. Its defined sequence and functional properties make it an ideal reference standard for method validation, chromatographic analysis, and structural characterization. Researchers employ Cartalax to refine purification processes and assess the performance of analytical instruments in peptide quantification and quality control.
Signal transduction pathway elucidation: Cartalax is instrumental in dissecting the molecular mechanisms of peptide-mediated signal transduction within connective tissue cells. By serving as a model ligand in receptor binding assays and downstream signaling studies, it helps clarify the roles of specific regulatory peptides in modulating cellular responses. These applications are fundamental for mapping the intricate networks that govern tissue maintenance and for identifying novel molecular targets in peptide biology research.
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