8-Arm PEG
- 8-Arm PEG-(CH2)3CO2H
- 8-Arm PEG-AA
- 8-Arm PEG-Acid
- 8-Arm PEG-Acrylamide
- 8-Arm PEG-Acrylate
- 8-Arm PEG-Alkyne
- 8-Arm PEG-Amido-(CH2)3CO2H
- 8-Arm PEG-Amido-Succinic Acid
- 8-Arm PEG-Azide
- 8-Arm PEG-Biotin
- 8-Arm PEG-Chloride
- 8-Arm PEG-DBCO
- 8-Arm PEG-Epoxide
- 8-Arm PEG-GA
- 8-Arm PEG-GAA
- 8-Arm PEG-GAS
- 8-Arm PEG-glycol
- 8-Arm PEG-glycol (hexaglycerol)
- 8-Arm PEG-Hydrazide
- 8-Arm PEG-MAL
- 8-Arm PEG-MAL
- 8-Arm PEG-NH2
- 8-Arm PEG-NH2
- 8-Arm PEG-Norbornene
- 8-Arm PEG-NPC
- 8-Arm PEG-OH
- 8-Arm PEG-OPSS
- 8-Arm PEG-SA
- 8-Arm PEG-SAA
- 8-Arm PEG-SAS
- 8-Arm PEG-SCM
- 8-Arm PEG-SG
- 8-Arm PEG-SG
- 8-Arm PEG-SH
- 8-Arm PEG-SH
- 8-Arm PEG-SS
- 8-Arm PEG-SS
- 8-Arm PEG-Tosylate
- 8-Arm PEG-VS
- 8-Arm PEG-VS
- 8-Arm PEG (hexaglycerol), 7-Arm-OH, 1-Arm-AA
- 8-Arm PEG, 7-Arm-OH, 1-Arm-AA
- 8-Arm PEG-acrylate
- 8-Arm PEG-Norbornene
The polymer 8-arm PEG, also called 8-arm polyethylene glycol, is made up of several PEG chains that are joined together at the center. PEG is hydrophilic because it has repeated ethylene oxide units in each arm of the polymer. The flexibility and functionality of a variety of applications, including medication delivery, surface modification, and biomaterials, can be improved by the branching structure. 8-arm PEG is frequently used in biomedical research and drug development due to its biocompatibility and ability to enhance the solubility and stability of drugs or biomolecules.
Fig. 1. Structures of different PEG derivatives.
Example of 8-Arm PEG
8-Arm PEG Amine
The amine functional group on the 8-arm PEG amine allows covalent attachment of various molecules or surfaces, which can be achieved by reacting the amine group with a reactive group on the target molecule or surface. Conjugating 8-Arm PEG amines to antibodies, proteins and peptides increases their stability and solubility. Pegylation can prevent protein aggregation, increase protein half-life, and enhance protein solubility in aqueous solutions. This is especially useful for therapeutic proteins or antibodies that may be easily degraded or have poor solubility. In addition to proteins and antibodies, 8-Arm PEG Amine can also be conjugated to solid supports such as nanoparticles or surfaces. This allows the creation of PEGylated nanoparticles or coatings, improving their stability, biocompatibility and circulation time in the body. PEGylation of solid supports can also reduce non-specific binding and improve the overall performance of the system.
8-Arm PEG Maleimide
8-arm PEG maleimide is a PEG derivative containing eight arms or branches. It has a maleimide functional group at the end of each arm. Maleimides are reactive groups that can form covalent bonds with thiol groups, such as those found on cysteine residues in proteins or peptides. 8-arm PEG maleimide is commonly used in bioconjugation and drug delivery applications. It can be used to modify proteins or peptides by reacting with exposed cysteine residues to form stable thioether linkages. This allows the attachment of various molecules, such as fluorescent dyes, drugs, or targeting ligands, to proteins or peptides of interest. The multiple arms of the 8-arm PEG maleimide provide a higher degree of functionalization compared to linear PEG derivatives, thereby improving the payload capacity and stability of the resulting conjugates.
8-Arm PEG NHS
NHS is a reactive group that can react with primary amines to form stable amide bonds. When combined with PEG, it can create a versatile platform for conjugating various molecules such as proteins, peptides, drugs or imaging agents. The 8-arm structure of PEG NHS provides a high degree of versatility and flexibility for creating multifunctional conjugates. It allows the attachment of multiple molecules or functional groups to a single PEG backbone, enhancing the stability, solubility, and biocompatibility of the conjugate.
8-Arm PEG-Biotin
Each branched end of 8-arm PEG-Biotin contains a molecule of biotin, which has high affinity for avidin and streptavidin proteins. The multiple arms of 8-arm PEG-biotin provide more attachment sites for biotin, allowing a higher degree of biotinylation than linear PEG-biotin molecules. This increased biotin density can enhance the binding affinity and specificity of biotinylated molecules to avidin or streptavidin, thereby improving the performance of applications such as affinity chromatography, protein arrays, or biosensors.
Advantages of 8-Arm PEG
- Increase solubility: PEG is a highly water-soluble polymer, and the multi-arm structure of 8-arm PEG further enhances its solubility in water. 8-arm PEG consists of multiple linear PEG chains connected at a central core. This multi-armed structure increases the number of hydroxyl groups that can form hydrogen bonds with water molecules, thereby increasing the overall solubility of the polymer.
- Increased biocompatibility: 8-arm PEG is a flexible polymer that is appropriate for a variety of biomedical applications due to its biocompatibility and many arms. Its widespread use in biomedicine is a result of its capacity to improve tissue engineering, medication delivery, and medicinal coatings. For instance, 8-arm PEG can be utilized in medical coatings to alter the surface characteristics of medical devices like implants and catheters. When these devices come into touch with the body, there is a lower chance of infection and irritation thanks to the 8-arm PEG's biocompatibility. The PEG molecule's many arms can also provide coatings that are more stable and long-lasting, extending the life and effectiveness of medical equipment.
- Versatile functionalization: The multiple arms of the 8-arm PEG offer a variety of functionalization sites, making it useful for tissue engineering, imaging, bioanalytical studies, and drug delivery. 8-arm PEG is a highly useful instrument for biomedical research and the creation of cutting-edge treatment approaches due to its adaptability and functionalization capacities. Imaging agents can be attached to functionalization sites for 8-arm PEG, for instance. The distribution and buildup of PEG-drug conjugates in vivo may be monitored by conjugating imaging agents to PEG molecules, offering important details on their pharmacokinetics and biodistribution.
- Increased half-life: By adding PEG to a molecule, it can become larger and more resistant to detection and removal by the immune system, extending its circulation in the body. A longer half-life would enable less frequent dosage, improving patient compliance and possibly improving treatment results. In some circumstances, multi-armed PEGs can be used to further optimize PEGylation (e.g. 8-arm PEGs). The many branches or arms of these PEG molecules can provide more steric hindrance and increase the protective effects of PEGylation. Since there are more PEG chains around the molecule, a thicker PEG layer is formed, increasing the molecule's resistance to the body's natural clearing and degrading processes.
One of the top suppliers of numerous chemical goods, such as 8-arm PEG, is BOC Sciences. For various client needs, our 8-arm PEGs come in a variety of molecular weights and functional groups. Moreover, BOC Sciences has a group of knowledgeable chemists that can custom-synthesize 8-Arm PEG in accordance with customers' particular needs. The molecular weight, functional groups, and other properties can be adjusted to satisfy individual requirements. Please get in touch with us if you're interested in learning more about our PEGylation services.
Why BOC Sciences?
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Large Stock
More than 2000+ products in inventory
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Global Delivery
Warehouses in multiple cities to ensure fast delivery
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mg to kg
Multi specification for academic research and industrial production
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24/7 Technical Support
Strict process parameter control to ensure product quality
Technical Support
- Aqueous Two-Phase System (ATPS) Technique
- Capillary Electrophoresis (CE) Technique
- Enzyme-linked immunosorbent assay (ELISA) Technique
- High performance liquid chromatography (HPLC) Technique
- Hydrophobic Interaction Chromatography (HIC) Technique
- PEGylated Protein Purification Techniques
- Radiolabeling Technique
- SDS-PAGE Technique
- Ultrafiltration Technique
Products
- Lipids
- PEG Derivatives by Structure
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PEG Derivatives by Functional Group
- Acrylate/Acrylamide/Methacrylate PEG
- Aldehyde (Ald/CHO)PEG
- Alkyne PEG
- Amino PEG, PEG amine(-NH2)
- Azide PEG, Azido PEG(-N3)
- Biotin PEG
- Boc/Fmoc protected amine PEG
- Carboxylic Acid(-COOH) PEG
- Cholesterol PEG
- DBCO PEG
- DNP PEG
- DSPE PEG
- Epoxide glycidyl ether PEG
- FITC PEG
- Folate PEG
- Halide (chloride, bromide) PEG
- Hydrazide PEG
- Hydroxyl(-OH) PEG
- Maleimide(-MAL) PEG
- NHS ester PEG
- Nitrophenyl carbonate (NPC) PEG
- Norbornene PEG
- Olefin/Alkene/Vinyl PEG
- Orthopyridyl disulfide (OPSS) PEG
- Phosphate PEG
- Rhodamine PEG
- SCM PEG
- Silane PEG
- SPDP PEG
- Sulfonate (tosyl, mesyl, tresyl) PEG
- tert-Butyl protected carboxylate PEG
- Thiol(-SH) PEG
- Vinylsulfone PEG
- PEG Copolymers
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PEG Raw Materials
- Small-molecule Polyethylene Glycol
- Polyethylene Glycol 1000
- Polyethylene Glycol 10000
- Polyethylene Glycol 1500
- Polyethylene Glycol 200
- Polyethylene Glycol 2000
- Polyethylene Glycol 20000
- Polyethylene Glycol 400
- Polyethylene Glycol 4000
- Polyethylene Glycol 600
- Polyethylene Glycol 6000
- Polyethylene Glycol 800
- Polyethylene Glycol 8000
Resources
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Technical Information
- Aqueous Two-Phase System (ATPS) Technique
- Capillary Electrophoresis (CE) Technique
- Enzyme-linked immunosorbent assay (ELISA) Technique
- High performance liquid chromatography (HPLC) Technique
- How to Perform Polyethylene Glycol (PEG) Modification?
- Hydrophobic Interaction Chromatography (HIC) Technique
- Introduction of Polyethylene Glycol (PEG)
- Ion Exchange Chromatography (IEX) Technique
- PEG for Chemical Synthesis
- PEG for Cosmetic Application
- PEG for Drug Delivery
- PEG for Imaging Diagnosis
- PEG for Pharmaceutical Preparation
- PEG for Tissue Engineering
- PEG Purification Techniques of Plasmid DNA
- PEGylated Protein Purification Techniques
- Polyethylene Glycol (PEG) Modifier Selection Guide
- Radiolabeling Technique
- SDS-PAGE Technique
- Size Exclusion Chromatography (SEC) Technique
- Ultrafiltration Technique
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Industry News
- Applications of PEG-DSPE: Drug Carriers and Drug Delivery
- Applications of Polyethylene Glycol (PEG) as Medical Devices
- Cholesterol: Definition, Structure, Synthesis, Types and Functions
- Classification of Lipid-Based Vaccine Adjuvants
- FDA approved PEGylated Products
- FDA-Approved Antibody-Drug Conjugates up to 2024
- How are Liposomes Different from Micelles?
- How Lipid Nanoparticles (LNPs) Deliver RNA Drugs?
- Hyaluronic Acid & PEGylated Hyaluronic Acid
- Ionizable Lipids for RNA Delivery
- Lipid Classification and Drug Delivery Systems
- Lipid Formulations: Key Absorption-Enhancing Technologies in New Drug Development
- Lipid-Drug Conjugates (LDCs) for Nanoparticle Drug Delivery
- Liposome in Drug Delivery
- Overview of Liposome Preparation Process
- PEG in Pharmaceutical Preparations (I): Solvents, Lubricants, Adhesives and More
- PEG in Pharmaceutical Preparations (II): Stabilizers, Plasticizers and Modification Materials
- PEG Linkers in Antibody Drug Conjugates and PROTACs
- PEG-DSPE Block Copolymers and Their Derivatives
- PEGylated Drugs: Definition, Structure, Classification and Benefits
- PEGylated RGD Peptides: A Promising Tool for Targeted Drug Delivery
- Pharmacokinetics and Bioanalysis of PEGylated Drugs
- Polyethylene Glycol (PEG) Modified Targeting Nanomaterials
- Preparation Method of PEG Hydrogel
- The PROTAC Technology in Drug Development
- Vaccines: Definition, History, Ingredients, Types and Mechanism of Action
- What are Lipid Excipients and Their Applications?
- What are Lipid Nanoparticles and Their Applications?
- What are Lipid-Drug Conjugates (LDCs)?
- What are Lipids?
- What are Monodispersed and Polydispersed PEGs?
- What are PEG Lipids?
- What are Phospholipids?
- What are Sterols? - Definition, Structure, Function, Examples and Uses
- What is Biotinylation and Biotinylated PEG?
- What is Click Chemistry?
- What is Hydrogel?
- What is Methoxy Polyethylene Glycol (mPEG)?
- What is Nanogels and Its Applications?
- What is the Formulation of Lipid Nanoparticles (LNPs)?
Our Feature
BOC Sciences supplies a unique variety of PEG derivatives and functional PEG polymers. Our products offer the most diverse collection of reactivity, ready-to-use functionality, and molecular weight options that you will not find anywhere else.
PEGylation of Peptides
and Proteins
Reduce the Immunogenicity of Peptide/Protein Drugs
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APPLICATIONS
PEG linkers For Drug
Improved Circulation Half-Life
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