In Vivo Determination of Substrate Specificity of Hepatitis C Virus NS3 Protease: Genetic Assay for Site-Specific Proteolysis

Hepatitis C virus (HCV) NS3 protease is responsible for the processing of the viral polyprotein and is considered as a primary target for the development of anti-HCV therapy. We have developed a genetic method in yeast to screen for good substrate sequences of the NS3 protease. A library of fusion p...

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Veröffentlicht in:Analytical biochemistry 2000-08, Vol.284 (1), p.42-48
Hauptverfasser: Kim, Sung Yun, Park, Kye Won, Lee, Yong Jae, Back, Sung Hoon, Goo, Jae Hwan, Park, Ohkmae K., Jang, Sung Key, Park, Woo Jin
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container_end_page 48
container_issue 1
container_start_page 42
container_title Analytical biochemistry
container_volume 284
creator Kim, Sung Yun
Park, Kye Won
Lee, Yong Jae
Back, Sung Hoon
Goo, Jae Hwan
Park, Ohkmae K.
Jang, Sung Key
Park, Woo Jin
description Hepatitis C virus (HCV) NS3 protease is responsible for the processing of the viral polyprotein and is considered as a primary target for the development of anti-HCV therapy. We have developed a genetic method in yeast to screen for good substrate sequences of the NS3 protease. A library of fusion proteins was constructed with a transcription factor, GAL4, linked to the intracellular domain of an integral membrane protein, STE2, by a randomized protease substrate sequence. In yeast cells expressing NS3 protease, the substrate sequences in the fusion proteins were specifically recognized and cleaved. This cleavage resulted in the release of GAL4 from the cytoplasmic membrane and the subsequent activation of reporter genes by GAL4, which was detected by the growth of yeast cells on selective media. Based on the analysis of 69 isolated substrate sequences, a consensus sequence was deduced: (Glu/Asp)-X-Val-Val-(Leu/Pro)-Cys ↓ (Ser/Ala), with the scissile bond being located between Cys and Ser or Ala and X not being determined. This is largely consistent with the previous results obtained by biochemical methods. An oligopeptide containing the deduced sequence was highly efficiently cleaved in vitro by the purified NS3 protease. These data demonstrated that the present genetic method could be used as an efficient tool for the in vivo determination of substrate specificity of proteases.
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An oligopeptide containing the deduced sequence was highly efficiently cleaved in vitro by the purified NS3 protease. 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We have developed a genetic method in yeast to screen for good substrate sequences of the NS3 protease. A library of fusion proteins was constructed with a transcription factor, GAL4, linked to the intracellular domain of an integral membrane protein, STE2, by a randomized protease substrate sequence. In yeast cells expressing NS3 protease, the substrate sequences in the fusion proteins were specifically recognized and cleaved. This cleavage resulted in the release of GAL4 from the cytoplasmic membrane and the subsequent activation of reporter genes by GAL4, which was detected by the growth of yeast cells on selective media. Based on the analysis of 69 isolated substrate sequences, a consensus sequence was deduced: (Glu/Asp)-X-Val-Val-(Leu/Pro)-Cys ↓ (Ser/Ala), with the scissile bond being located between Cys and Ser or Ala and X not being determined. This is largely consistent with the previous results obtained by biochemical methods. 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subjects Amino Acids - chemistry
Chromatography, High Pressure Liquid
DNA-Binding Proteins
Fungal Proteins - metabolism
Gal4 protein
Gene Library
Genes, Reporter
HCV
Hepatitis C virus
NS3 proteinase
Peptides - metabolism
protease
Protein Structure, Tertiary
randomized sequence
Receptors, Mating Factor
Receptors, Peptide - metabolism
Recombinant Fusion Proteins - metabolism
Saccharomyces cerevisiae
Saccharomyces cerevisiae - metabolism
Saccharomyces cerevisiae Proteins
Ste2 protein
Substrate Specificity
Transcription Factors - metabolism
Viral Nonstructural Proteins - chemistry
Viral Nonstructural Proteins - genetics
title In Vivo Determination of Substrate Specificity of Hepatitis C Virus NS3 Protease: Genetic Assay for Site-Specific Proteolysis
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