Restarutide(link:https://www.bloomtechz.com/synthetic-chemical/peptide/retatrutide-powder-cas-2381089-83-2.html), CAS 2381089-83-2. It is a peptide chain composed of 15 amino acids, including 7 arginine residues and 8 glycine residues. Its molecular structure has high stability and compactness, which allows it to maintain a highly folded state in solution. Having chirality, that is, it has optical activity. This means that when light passes through it, it causes the polarization plane of the light to rotate. The pure Rotarutide appears white, but may appear light yellow or light brown under certain conditions. The transport process of Rotarutide on the cell membrane is relatively slow. Its thermal stability is mainly attributed to the hydrophobic interactions within its molecules and the folding of peptide chains. It has certain stability towards acids and bases, and can maintain good stability within the pH range of 4-9. It also has a certain degree of stability towards oxidants and reducing agents, which enables it to resist the effects of redox reactions in organisms. Retarutide, as a bioactive molecule, has broad application prospects in the field of life sciences and is expected to bring new therapeutic strategies to human health. It should be noted that although Rotarutide exhibits good biological activity potential in laboratory and animal models, its clinical application still requires further research and experimental validation.
Retarutide is a biomolecule with special reaction properties. The following are all the reaction properties and chemical equations of Retarutide:
1. Peptide bond formation: Retarutide is a peptide chain composed of two amino acids, arginine and glycine, and peptide bonds are chemical bonds that connect the two amino acids. The formation of peptide bonds is one of the main reactions in the synthesis of Retarutide, and its chemical equation is:
Arg Arg Gly Gly Gly Gly Gly Gly Gly Gly Gly Gly Val Gly Val Gly Gly Gly Glu Gly Ile Gly Gly Eu Gly Gly Gal OH+H2N Gly Pro Arg Gly Gly OH+H2N Gly Pro Arg Gly OH2 Rotarutide+H2N Gly Pro Arg
2. Intramolecular cyclization: The circular structure formed within the Retarutide molecule is crucial for its biological activity. The intramolecular cyclization reaction is achieved through the interaction between two arginine residues in the peptide chain, and its chemical equation is:
Arg38+Arg43 → cyclic (Arg38 – Arg43)
3. Molecular conformational changes: Retarutide has a highly folded structure in solution, but undergoes conformational changes when interacting with the cell membrane. This conformational change may be achieved through interaction with lipid molecules on the cell membrane, and its chemical equation is:
Retarutide+pid → Retarutide - pid complex
4. Interactions with cell receptors: Retarutide can bind and interact with cell surface receptors, triggering a series of biological effects. The interaction with cell receptors may be achieved through hydrogen bonding, hydrophobic interaction, or ion interaction, and its chemical equation is:
Retarutide+receiver → Retarutide - receiver complex
5. Hydrolysis reaction: Retarutide may undergo hydrolysis reactions in certain biological environments, breaking the peptide bonds in the peptide chain to form amino acids and short peptides. The chemical equation is:
Restarutide+H2O → amino acids+peptides
6. Oxidation reaction: Retarutide may undergo oxidation reactions in certain biological environments, oxidizing arginine residues in the peptide chain to oxidized arginine residues. The chemical equation is:
Retarutide+O2 → Retarutide – OOH
7. Phosphorylation reaction: In certain signal transduction pathways, Retarutide may undergo phosphorylation reactions, phosphorylating specific amino acid residues. The chemical equation is:
Retarutide+ATP → Retarutide - photosphate+ADP
8. Interactions with small molecule receptors: Retarutide can also interact with certain small molecule receptors, such as G protein coupled receptors (GPCRs), which may be regulated through ligand coupled receptor coupled signal transduction pathways. The chemical equation is:
Retarutide+GPCR → Retarutide - GPCR complex → internal signaling cascade
Retarutide is a peptide chain composed of 15 amino acids, which contains 7 arginine residues and 8 glycine residues. The analysis of the molecular structure of Retarutide can be elaborated from the following perspectives:
1. Amino acid composition:
Retarutide is composed of two amino acids, arginine and glycine, with 7 arginine residues and 8 glycine residues. These two amino acids are common bioactive molecules, with arginine playing an important role in many biological processes, while glycine has a protective effect on cells and maintains homeostasis.
2. 3D structure:
The three-dimensional structure of Rotarutide molecules is crucial for their biological activity. Due to the presence of 7 arginine residues in Retarutide, ion interactions may form between these arginine residues, causing Retarutide molecules to fold in three-dimensional space. In addition, the hydrogen bonds between glycine residues may also play a role in the three-dimensional conformation of the Retarutide molecule.
3. Molecular weight and formula:
The molecular weight of Retarutide is 1679.29 Daltons, and the molecular formula is C71H112N22O21. This means that each Rotarutide molecule consists of 71 carbon atoms, 112 hydrogen atoms, 22 nitrogen atoms, and 21 oxygen atoms. These atoms are arranged in a specific way within the molecule, forming the specific conformation and biological activity of the Rotarutide molecule.
4. Atomic interactions:
In the Retarutide molecule, atoms maintain their structural stability and biological activity through covalent bonds and van der Waals forces. Among them, covalent bonds are strong interactions formed between atoms by sharing electrons, while van der Waals forces are weak interactions generated between atoms through uneven charge distribution. These interactions collectively determine the conformation and biological activity of the Rotarutide molecule.
In summary, the analysis of the molecular structure of Retarutide helps us to gain a deeper understanding of its biological activity and molecular mechanisms. The study of its molecular structure can provide important theoretical basis for drug design, thereby providing new treatment strategies for tumors, neurodegenerative diseases, and other major diseases. However, further preclinical and clinical trial validation is needed for these studies to be ultimately applied in clinical practice.