Metal affinity engineering of proinsulin carrying genetically attached (His)10-X-met affinity tail and removal of the tag by cyanogen bromide

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dc.contributor.authorJung Hun Koh-
dc.contributor.authorWook Joon Chung-
dc.contributor.authorSuk Hoon Koh-
dc.contributor.authorByoung Chul Park-
dc.contributor.authorSuk Tae Kwon-
dc.contributor.authorChul Ho Kim-
dc.contributor.authorDae Sil Lee-
dc.date.accessioned2017-04-19T08:44:32Z-
dc.date.available2017-04-19T08:44:32Z-
dc.date.issued1994-
dc.identifier.issn0916-8451-
dc.identifier.urihttps://oak.kribb.re.kr/handle/201005/3388-
dc.description.abstractAn E. coli expression clone coding for human proinsulin, which was fused to NH2-terminal beta-galactosidase, was engineered for the separation from host proteins by introducing peptide devices, and for the sequential removal of the fused polypeptide by cyanogen bromide in front of the NH2 terminal residue (methionine) of the human proinsulin gene. Short synthetic genes encoding oligopeptide residues including (Glu)n, (His)n, (Trp)n, and (Ser)n (n = 10 or 11), which have certain characteristic physical properties such as metal-affinity, polarity, hydrophobicity, and hydrophilicity, respectively, were inserted at the junction region of the gene fusion. Interestingly, it was found that among the oligopeptides, the oligohistidine residue as an affinity-tag has greatly facilitated the procedures for FPI purification, particularly in the manner of selective metal-affinity precipitation. The chelating peptide covering the NH2-terminal beta-galactosidase portion could then be removed simply after purification to generate a protein with the natural amino acid sequence of proinsulin by cyanogen bromide.-
dc.publisherT&F (Taylor & Francis)-
dc.titleMetal affinity engineering of proinsulin carrying genetically attached (His)10-X-met affinity tail and removal of the tag by cyanogen bromide-
dc.title.alternativeMetal affinity engineering of proinsulin carrying genetically attached (His)10-X-met affinity tail and removal of the tag by cyanogen bromide-
dc.typeArticle-
dc.citation.titleBioscience Biotechnology and Biochemistry-
dc.citation.number9-
dc.citation.endPage1699-
dc.citation.startPage1694-
dc.citation.volume58-
dc.contributor.affiliatedAuthorJung Hun Koh-
dc.contributor.affiliatedAuthorSuk Hoon Koh-
dc.contributor.affiliatedAuthorByoung Chul Park-
dc.contributor.affiliatedAuthorSuk Tae Kwon-
dc.contributor.affiliatedAuthorChul Ho Kim-
dc.contributor.affiliatedAuthorDae Sil Lee-
dc.contributor.alternativeName고정헌-
dc.contributor.alternativeName정욱준-
dc.contributor.alternativeName고석훈-
dc.contributor.alternativeName박병철-
dc.contributor.alternativeName권석태-
dc.contributor.alternativeName김철호-
dc.contributor.alternativeName이대실-
dc.identifier.bibliographicCitationBioscience Biotechnology and Biochemistry, vol. 58, no. 9, pp. 1694-1699-
dc.description.journalClassY-
Appears in Collections:
Synthetic Biology and Bioengineering Research Institute > Genome Editing Research Center > 1. Journal Articles
Critical Diseases Diagnostics Convergence Research Center > 1. Journal Articles
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