Catalysis of oxidative protein folding by small-molecule diselenides

The production of recombinant, disulfide-containing proteins often requires oxidative folding in vitro. Here, we show that diselenides, such as selenoglutathione, catalyze oxidative protein folding by O 2. Substantially lower concentrations of a redox buffer composed of selenoglutathione and the thi...

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Veröffentlicht in:Biochemistry (Easton) Jg. 47; H. 27; S. 6985
Hauptverfasser: Beld, Joris, Woycechowsky, Kenneth J, Hilvert, Donald
Format: Journal Article
Sprache:Englisch
Veröffentlicht: United States 08.07.2008
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ISSN:1520-4995, 1520-4995
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Abstract The production of recombinant, disulfide-containing proteins often requires oxidative folding in vitro. Here, we show that diselenides, such as selenoglutathione, catalyze oxidative protein folding by O 2. Substantially lower concentrations of a redox buffer composed of selenoglutathione and the thiol form of glutathione can consequently be used to achieve the same rate and yield of folding as a standard glutathione redox buffer. Further, the low p K a of selenols extends the pH range for folding by selenoglutathione to acidic conditions, where glutathione is inactive. Harnessing the catalytic power of diselenides may thus pave the way for more efficient oxidative protein folding.
AbstractList The production of recombinant, disulfide-containing proteins often requires oxidative folding in vitro. Here, we show that diselenides, such as selenoglutathione, catalyze oxidative protein folding by O 2. Substantially lower concentrations of a redox buffer composed of selenoglutathione and the thiol form of glutathione can consequently be used to achieve the same rate and yield of folding as a standard glutathione redox buffer. Further, the low p K a of selenols extends the pH range for folding by selenoglutathione to acidic conditions, where glutathione is inactive. Harnessing the catalytic power of diselenides may thus pave the way for more efficient oxidative protein folding.The production of recombinant, disulfide-containing proteins often requires oxidative folding in vitro. Here, we show that diselenides, such as selenoglutathione, catalyze oxidative protein folding by O 2. Substantially lower concentrations of a redox buffer composed of selenoglutathione and the thiol form of glutathione can consequently be used to achieve the same rate and yield of folding as a standard glutathione redox buffer. Further, the low p K a of selenols extends the pH range for folding by selenoglutathione to acidic conditions, where glutathione is inactive. Harnessing the catalytic power of diselenides may thus pave the way for more efficient oxidative protein folding.
The production of recombinant, disulfide-containing proteins often requires oxidative folding in vitro. Here, we show that diselenides, such as selenoglutathione, catalyze oxidative protein folding by O 2. Substantially lower concentrations of a redox buffer composed of selenoglutathione and the thiol form of glutathione can consequently be used to achieve the same rate and yield of folding as a standard glutathione redox buffer. Further, the low p K a of selenols extends the pH range for folding by selenoglutathione to acidic conditions, where glutathione is inactive. Harnessing the catalytic power of diselenides may thus pave the way for more efficient oxidative protein folding.
Author Beld, Joris
Woycechowsky, Kenneth J
Hilvert, Donald
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  surname: Woycechowsky
  fullname: Woycechowsky, Kenneth J
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  fullname: Hilvert, Donald
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Snippet The production of recombinant, disulfide-containing proteins often requires oxidative folding in vitro. Here, we show that diselenides, such as...
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StartPage 6985
SubjectTerms Catalysis
Glutathione - metabolism
Kinetics
Oxidation-Reduction
Protein Folding
Ribonuclease, Pancreatic - chemistry
Ribonuclease, Pancreatic - metabolism
Selenium Compounds - metabolism
Title Catalysis of oxidative protein folding by small-molecule diselenides
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