Electrochemically produced hydrogen peroxide affects Joliot-type oxygen-evolution measurements of photosystem II
The main technique employed to characterize the efficiency of water-splitting in photosynthetic preparations in terms of miss and double hit parameters and for the determination of Si (i=2,3,0) state lifetimes is the measurement of flash-induced oxygen oscillation pattern on bare platinum (Joliot-ty...
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Published in | Biochimica et biophysica acta Vol. 1837; no. 9; pp. 1411 - 1416 |
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Main Authors | , |
Format | Journal Article |
Language | English |
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Netherlands
01.09.2014
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Abstract | The main technique employed to characterize the efficiency of water-splitting in photosynthetic preparations in terms of miss and double hit parameters and for the determination of Si (i=2,3,0) state lifetimes is the measurement of flash-induced oxygen oscillation pattern on bare platinum (Joliot-type) electrodes. We demonstrate here that this technique is not innocent. Polarization of the electrode against an Ag/AgCl electrode leads to a time-dependent formation of hydrogen peroxide by two-electron reduction of dissolved oxygen continuously supplied by the flow buffer. While the miss and double hit parameters are almost unaffected by H₂O₂, a time dependent reduction of S1 to S₋₁ occurs over a time period of 20 min. The S1 reduction can be largely prevented by adding catalase or by removing O₂ from the flow buffer with N₂. Importantly, we demonstrate that even at the shortest possible polarization times (40s in our set up) the S₂ and S₀ decays are significantly accelerated by the side reaction with H₂O₂. The removal of hydrogen peroxide leads to unperturbed S₂ state data that reveal three instead of the traditionally reported two phases of decay. In addition, even under the best conditions (catalase+N₂; 40s polarization) about 4% of S₋₁ state is observed in well dark-adapted samples, likely indicating limitations of the equal fit approach. This article is part of a special issue entitled: photosynthesis research for sustainability: keys to produce clean energy. |
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AbstractList | The main technique employed to characterize the efficiency of water-splitting in photosynthetic preparations in terms of miss and double hit parameters and for the determination of S-i (i = 2,3,0) state lifetimes is the measurement of flash-induced oxygen oscillation pattern on bare platinum (Joliot-type) electrodes. We demonstrate here that this technique is not innocent. Polarization of the electrode against an Ag/AgCl electrode leads to a time-dependent formation of hydrogen peroxide by two-electron reduction of dissolved oxygen continuously supplied by the flow buffer. While the miss and double hit parameters are almost unaffected by H2O2, a time dependent reduction of S-1 to S-1 occurs over a time period of 20 mm. The S-1 reduction can be largely prevented by adding catalase or by removing O-2 from the flow buffer with N-2. Importantly, we demonstrate that even at the shortest possible polarization times (40 s in our set up) the S-2 and S-0 decays are significantly accelerated by the side reaction with H2O2. The removal of hydrogen peroxide leads to unperturbed S-2 state data that reveal three instead of the traditionally reported two phases of decay. In addition, even under the best conditions (catalase + N-2; 40 s polarization) about 4% of S-1 state is observed in well dark-adapted samples, likely indicating limitations of the equal fit approach. This article is part of a Special Issue entitled: Photosynthesis Research for Sustainability: Keys to Produce Clean Energy. (C) 2014 Elsevier B.V. All rights reserved. The main technique employed to characterize the efficiency of water-splitting in photosynthetic preparations in terms of miss and double hit parameters and for the determination of S-i (i = 2,3,0) state lifetimes is the measurement of flash-induced oxygen oscillation pattern on bare platinum (Joliot-type) electrodes. We demonstrate here that this technique is not innocent. Polarization of the electrode against an Ag/AgCl electrode leads to a time-dependent formation of hydrogen peroxide by two-electron reduction of dissolved oxygen continuously supplied by the flow buffer. While the miss and double hit parameters are almost unaffected by H2O2, a time dependent reduction of S-1 to S-1 occurs over a time period of 20 mm. The S-1 reduction can be largely prevented by adding catalase or by removing O-2 from the flow buffer with N-2. Importantly, we demonstrate that even at the shortest possible polarization times (40 s in our set up) the S-2 and S-0 decays are significantly accelerated by the side reaction with H2O2. The removal of hydrogen peroxide leads to unperturbed S-2 state data that reveal three instead of the traditionally reported two phases of decay. In addition, even under the best conditions (catalase + N-2; 40 s polarization) about 4% of S-1 state is observed in well dark-adapted samples, likely indicating limitations of the equal fit approach. This article is part of a Special Issue entitled: Photosynthesis Research for Sustainability: Keys to Produce Clean Energy. The main technique employed to characterize the efficiency of water-splitting in photosynthetic preparations in terms of miss and double hit parameters and for the determination of Si (i=2,3,0) state lifetimes is the measurement of flash-induced oxygen oscillation pattern on bare platinum (Joliot-type) electrodes. We demonstrate here that this technique is not innocent. Polarization of the electrode against an Ag/AgCl electrode leads to a time-dependent formation of hydrogen peroxide by two-electron reduction of dissolved oxygen continuously supplied by the flow buffer. While the miss and double hit parameters are almost unaffected by H₂O₂, a time dependent reduction of S1 to S₋₁ occurs over a time period of 20 min. The S1 reduction can be largely prevented by adding catalase or by removing O₂ from the flow buffer with N₂. Importantly, we demonstrate that even at the shortest possible polarization times (40s in our set up) the S₂ and S₀ decays are significantly accelerated by the side reaction with H₂O₂. The removal of hydrogen peroxide leads to unperturbed S₂ state data that reveal three instead of the traditionally reported two phases of decay. In addition, even under the best conditions (catalase+N₂; 40s polarization) about 4% of S₋₁ state is observed in well dark-adapted samples, likely indicating limitations of the equal fit approach. This article is part of a special issue entitled: photosynthesis research for sustainability: keys to produce clean energy. |
Author | Messinger, Johannes Pham, Long Vo |
Author_xml | – sequence: 1 givenname: Long Vo surname: Pham fullname: Pham, Long Vo organization: Department of Chemistry, Chemistry Biology Center (KBC), Umeå University, Linnaeus väg 6, SE-901 87 Umeå, Sweden – sequence: 2 givenname: Johannes surname: Messinger fullname: Messinger, Johannes email: Johannes.Messinger@umu.se organization: Department of Chemistry, Chemistry Biology Center (KBC), Umeå University, Linnaeus väg 6, SE-901 87 Umeå, Sweden. Electronic address: Johannes.Messinger@umu.se |
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Keywords | Photosystem II (PSII) Hydrogen peroxide (HO) Oxygen evolving complex (OEC) Water oxidation Manganese |
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SubjectTerms | Electrochemistry hydrogen peroxide (H2O2) Hydrogen Peroxide - chemistry Manganese Oxygen - chemistry oxygen evolving complex (OEC) photosystem II (PSII) Photosystem II Protein Complex - chemistry Water oxidation |
Title | Electrochemically produced hydrogen peroxide affects Joliot-type oxygen-evolution measurements of photosystem II |
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