四臂 PEG 丙烯酸酯

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .Applications may include: bioconjμgation, drμg delivery, PEG hydrogel, crosslinker, and surface functionalization

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

四臂 PEG 生物素

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

四臂 PEG 生物素

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

四臂 PEG 生物素

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

四臂 PEG 巯基

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

4 arm PEG derivatives have multiple reactive groups that can be used to modify proteins, peptides and other materials via their functional groups. PEGylation can increase solubility and stability and reduce immunogenicity of peptides and proteins. It can also suppress the non-specific binding of charged molecules to the modified surfaces. .

四臂 PEG 半胱氨酸

Nanocs’ amino acid and peptide PEG conjμgates were made from the covalent attachment of PEG to various amino acid derivatives. Conjμgates were provided in lyophilized powder form.

Nanocs’ amino acid and peptide PEG conjugates were made from the covalent attachment of PEG to various amino acid derivatives. Conjugates were provided in lyophilized powder form.

四臂 PEG 半胱氨酸

Nanocs’ amino acid and peptide PEG conjμgates were made from the covalent attachment of PEG to various amino acid derivatives. Conjμgates were provided in lyophilized powder form.

Nanocs’ amino acid and peptide PEG conjugates were made from the covalent attachment of PEG to various amino acid derivatives. Conjugates were provided in lyophilized powder form.

四臂 PEG 谷胱甘肽

Nanocs’ amino acid and peptide PEG conjμgates were made from the covalent attachment of PEG to various amino acid derivatives. Conjμgates were provided in lyophilized powder form.

Nanocs’ amino acid and peptide PEG conjugates were made from the covalent attachment of PEG to various amino acid derivatives. Conjugates were provided in lyophilized powder form.

四臂 PEG 谷胱甘肽

Nanocs’ amino acid and peptide PEG conjμgates were made from the covalent attachment of PEG to various amino acid derivatives. Conjμgates were provided in lyophilized powder form.

Nanocs’ amino acid and peptide PEG conjugates were made from the covalent attachment of PEG to various amino acid derivatives. Conjugates were provided in lyophilized powder form.

四臂 PEG 天冬氨酸

Nanocs’ amino acid and peptide PEG conjμgates were made from the covalent attachment of PEG to various amino acid derivatives. Conjμgates were provided in lyophilized powder form.

Nanocs’ amino acid and peptide PEG conjugates were made from the covalent attachment of PEG to various amino acid derivatives. Conjugates were provided in lyophilized powder form.

四臂 PEG 天冬氨酸

Nanocs’ amino acid and peptide PEG conjμgates were made from the covalent attachment of PEG to various amino acid derivatives. Conjμgates were provided in lyophilized powder form.

Nanocs’ amino acid and peptide PEG conjugates were made from the covalent attachment of PEG to various amino acid derivatives. Conjugates were provided in lyophilized powder form.