AOD 9604(link:https://www.bloomtechz.com/synthetic-chemical/peptide/aod-9604-powder-cas-221231-10-3.html) may have different colors depending on its preparation and usage form. For example, it may be a white, yellow, brown, or gray powder or particle. It has good water solubility and fat solubility, allowing it to quickly penetrate into tissues and organs. It can be dissolved in solvents such as water, ethanol, methanol, and chloroform. AOD 9604 is an artificially synthesized peptide originally developed as an anti obesity drug, but it is now widely sold to individuals to help them burn fat and lose weight. AOD 9604 is an improved version of HGH (Human Growth Hormone), using an injectable form designed to help stimulate the human pituitary gland, thereby accelerating metabolism and increasing weight loss effectiveness. The application in weight loss has multiple advantages. It can trigger fat release and promote metabolism, aid in bone and cartilage repair, and increase the number of calories that can be burned. The uses of this peptide include reducing body fat, assisting in bone and cartilage repair, and increasing the amount of calories that can be burned.
AOD 9604 is an artificially synthesized active peptide that can be synthesized using various methods. The following is a possible synthesis method for AOD 9604:
Material preparation: Prepare the necessary reagents, consumables, and equipment, including amino acids, protective agents, activators, solvents, etc.
Synthesis steps:
(1) Design peptide sequence: Based on the target function and purpose, design the amino acid sequence of AOD 9604.
(2) Synthesis of linear peptides: Connect the required amino acids through peptide bonds to form linear peptides. This step usually requires the use of an activator (such as EDC or BOP) to activate the amino acid, followed by a condensation reaction.
(3) Protective groups: In order to protect certain side chain groups, protective agents need to be added. For example, amino groups are protected with Boc or Fmoc, while carboxyl groups are protected with t-Bu or Alloc.
(4) Solid phase synthesis: Fix the synthesized linear peptide onto a solid phase carrier for subsequent deprotection, coupling, and cleavage steps.
(5) Deprotection and coupling: Remove the protective group and couple the peptide chain to the carrier. This step requires the use of a deprotective agent (such as trifluoroacetic acid or hydrobromic acid) to remove the protective group and the addition of an activator (such as HATU or PyBOP) for coupling reaction.
(6) Cutting and purification: Cut the peptide chain from the carrier and use chromatography technology for purification. This step usually requires the use of cutting agents (such as proton acids) to cut the peptide chain off the carrier, and separation and purification using methods such as reverse phase chromatography or ion exchange chromatography.
Quality control: Conduct quality control testing, including the determination of purity, molecular weight, isoelectric point and other parameters, to ensure that the synthesized AOD 9604 meets the expected quality and properties.
Chemical synthesis is a peptide synthesis method commonly used to prepare peptides with specific sequences and functions. The following are the detailed steps of the chemical synthesis method:
Material preparation: Prepare the necessary reagents, solvents, equipment, and laboratory equipment, such as flasks, separation funnels, filters, rotary evaporators, freeze-drying machines, etc.
Synthesis steps:
(1) Design peptide sequence: Based on the target function and purpose, design the amino acid sequence of AOD 9604.
(2) Synthesis of linear peptides: Connect the required amino acids through peptide bonds to form linear peptides. This step usually requires the use of an activator (such as EDC or BOP) to activate the amino acid, followed by a condensation reaction.
(3) Solid phase synthesis: Fix the synthesized linear peptide onto a solid phase carrier for subsequent deprotection, coupling, and cleavage steps. (Specific steps can be found below)
(4) Deprotection and coupling: Remove the protective group and couple the peptide chain to the carrier. This step requires the use of a deprotective agent (such as trifluoroacetic acid or hydrobromic acid) to remove the protective group and the addition of an activator (such as HATU or PyBOP) for coupling reaction.
(5) Cutting and purification: Cut the peptide chain from the carrier and use chromatography technology for purification. This step usually requires the use of cutting agents (such as proton acids) to cut the peptide chain off the carrier, and separation and purification using methods such as reverse phase chromatography or ion exchange chromatography.
Quality control: Conduct quality control testing, including the determination of purity, molecular weight, isoelectric point and other parameters, to ensure that the synthesized AOD 9604 meets the expected quality and properties.
The following is the chemical equation for chemical synthesis:
Activated amino acids:
C2H4Cl2 + HCl + NH2 (protected amino acid) → NH2 (protected amino acid) - CO-N=C=O + H2O
Binding to carrier:
NH2 (protected amino acid)-CO-N=C=O + NH2 (resin) → NH2 (protected amino acid)-CO-NH resin
Deprotection group:
NH2 (protected amino acid)-CONH resin + C7H14O2 → NH2(protected amino acid)-COOH + NH2 (C7H14O2)-NH resin
Coupled peptide chains:
NH2(protected amino acid)-COOH + NH2(protected amino acid)-NH resin → NH2(protected amino acid)-CO NH-(protected amino acid)-NH resin + H2O
Cutting peptide chains:
NH2 (protected amino acid) - CO-NH - (protected amino acid) - NH resin → NH2 (protected amino acid) - CO-NH - (protected amino acid) - NH - (CH2) 5-resin+NH2 (CH2) 5-NH resin
To protect groups:
NH2 (protected amino acid)-CO-NH-(protected amino acid)-NH-(CH2)5-resin → NH2 (protected amino acid)-CO-NH-(protected amino acid) - NH-(CH2)5-NH resin + HCl
Carrier removal:
NH2(protected amino acid)-CO-NH-(protected amino acid)-NH-(CH2)5-NH resin → NH2 (C78H123N23O23S2) + (CH2)5-NH resin
Gene recombination technology is a commonly used peptide synthesis method that involves inserting the target peptide gene into an expression vector and expressing the corresponding protein in the host cell. The following are the detailed steps of gene recombination technology:
1. Material preparation: Prepare the necessary reagents, carriers, primers, polymerase, substrates, etc. In addition, it is necessary to prepare corresponding cell culture equipment and laboratory tools, such as centrifuge tubes, pipettes, shaking tables, etc.
2. Gene synthesis and construction of expression vectors:
(1) Design peptide genes: Based on the target function and purpose, design the amino acid sequence of AOD 9604 and convert it into a gene sequence.
(2) Synthetic gene: The target gene is synthesized using chemical synthesis or polymerase chain reaction (PCR) methods.
(3) Construction of expression vector: Insert the synthesized gene into the expression vector. This step typically involves fusing the gene with the carrier protein and connecting their DNA sequences to express the corresponding protein in the host cell.
3. Transformation and amplification: The constructed expression vector is introduced into the host cell and cultured and amplified using a specific culture medium. This step usually requires the use of commonly used methods such as electroporation, conversion, transfection, etc.
4. Expression and purification: The corresponding protein is expressed in the host cell and the target peptide is isolated from the cell using specific purification methods. This step usually requires operations such as cell fragmentation, protein dissolution, and protein precipitation to obtain the target peptide with high purity.
5. Quality control: Conduct quality control testing, including the determination of purity, molecular weight, isoelectric point and other parameters, to ensure that the synthesized AOD 9604 meets the expected quality and properties.
The following is the flowchart of gene recombination technology:
Design peptide genes → Synthetic genes → Construction of expression vectors → Transformation and amplification → Expression and purification → Quality control
It should be noted that gene recombination technology requires certain experimental skills and experience, involving various complex technologies and methods, such as gene editing, protein expression, and purification. Therefore, in practical operation, it is necessary to select suitable laboratories and experts for cooperation to ensure the smooth progress of the experiment and the successful synthesis of the target peptide.