A simple and efficient method for cytoplasmic production of human enterokinase light chain in E. coli

被引:0
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作者
Mohammad Ebrahimifard
Mohammad Mahdi Forghanifard
Ahad Yamchi
Vajiheh Zarrinpour
Mahrokh Sharbatkhari
机构
[1] Islamic Azad University,Department of Biology, Damghan Branch
[2] Gorgan University of Agricultural Sciences and Natural Resources,Department of Biotechnology
[3] Research and Development Division of Arya Tina Gene Company,undefined
来源
AMB Express | / 12卷
关键词
Recombinant enterokinase; Response surface methodology; Protein folding; Affinity chromatography;
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摘要
Human enterokinase light chain (hEKL) cDNA sequence was designed with the help of codon optimization towards Escherichia coli codon preference and ribosome binding site design and artificially synthesized with a thioredoxin fusion tag at the N-terminal and a five his-tag peptide at the C-terminal. The synthetic hEKL gene was cloned into the pET-15 expression vector and transferred into the three different expression strains of E. coli BL21(DE3), NiCo21, and SHuffle T7 Express. Different growth and induction conditions were studied using a statistical response surface methodology (RSM). Recombinant hEKL protein was expressed at high levels in soluble form with 0.71 mM IPTG after 4 h of induction at 25 °C. Autocatalytic process cleaved TRX tag with enterokinase recognition site by the impure hEKL and yielded the mature enzyme. The target protein was then purified to homogeneity (> 95%) by affinity chromatography. The activity of hEKL was comparable to the commercial enzyme. From 1 L culture, 80 mg pure active hEKL was obtained with the specific activity of 6.25 × 102 U/mg. Three main parameters that help us to produce the enzyme in the folded and active form are the type of strain, SHuffle T7 strain, TRX and histidine fusion tags, and growth conditions including the increase of OD of induction and IPTG concentration and the decrease of induction temperature.
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