The antenna of far-red absorbing cyanobacteria increases both absorption and quantum efficiency of Photosystem II

Cyanobacteria carry out photosynthetic light-energy conversion using phycobiliproteins for light harvesting and the chlorophyll-rich photosystems for photochemistry. While most cyanobacteria only absorb visible photons, some of them can acclimate to harvest far-red light (FRL, 700–800 nm) by integra...

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Published inNature communications Vol. 13; no. 1; p. 3562
Main Authors Mascoli, Vincenzo, Bhatti, Ahmad Farhan, Bersanini, Luca, van Amerongen, Herbert, Croce, Roberta
Format Journal Article
LanguageEnglish
Published London Nature Publishing Group UK 21.06.2022
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Abstract Cyanobacteria carry out photosynthetic light-energy conversion using phycobiliproteins for light harvesting and the chlorophyll-rich photosystems for photochemistry. While most cyanobacteria only absorb visible photons, some of them can acclimate to harvest far-red light (FRL, 700–800 nm) by integrating chlorophyll f and d in their photosystems and producing red-shifted allophycocyanin. Chlorophyll f insertion enables the photosystems to use FRL but slows down charge separation, reducing photosynthetic efficiency. Here we demonstrate with time-resolved fluorescence spectroscopy that on average charge separation in chlorophyll- f -containing Photosystem II becomes faster in the presence of red-shifted allophycocyanin antennas. This is different from all known photosynthetic systems, where additional light-harvesting complexes increase the overall absorption cross section but slow down charge separation. This remarkable property can be explained with the available structural and spectroscopic information. The unique design is probably important for these cyanobacteria to efficiently switch between visible and far-red light. Some cyanobacteria acclimate to far-red light by integrating chlorophyll f into their photosystems. Additional chlorophylls typically slow down charge separation but here the authors show that charge separation in chlorophyll-f-containing Photosystem II is faster in the presence of red-shifted allophycocyanin antennas.
AbstractList Some cyanobacteria acclimate to far-red light by integrating chlorophyll f into their photosystems. Additional chlorophylls typically slow down charge separation but here the authors show that charge separation in chlorophyll-f-containing Photosystem II is faster in the presence of red-shifted allophycocyanin antennas.
Abstract Cyanobacteria carry out photosynthetic light-energy conversion using phycobiliproteins for light harvesting and the chlorophyll-rich photosystems for photochemistry. While most cyanobacteria only absorb visible photons, some of them can acclimate to harvest far-red light (FRL, 700–800 nm) by integrating chlorophyll f and d in their photosystems and producing red-shifted allophycocyanin. Chlorophyll f insertion enables the photosystems to use FRL but slows down charge separation, reducing photosynthetic efficiency. Here we demonstrate with time-resolved fluorescence spectroscopy that on average charge separation in chlorophyll- f -containing Photosystem II becomes faster in the presence of red-shifted allophycocyanin antennas. This is different from all known photosynthetic systems, where additional light-harvesting complexes increase the overall absorption cross section but slow down charge separation. This remarkable property can be explained with the available structural and spectroscopic information. The unique design is probably important for these cyanobacteria to efficiently switch between visible and far-red light.
Cyanobacteria carry out photosynthetic light-energy conversion using phycobiliproteins for light harvesting and the chlorophyll-rich photosystems for photochemistry. While most cyanobacteria only absorb visible photons, some of them can acclimate to harvest far-red light (FRL, 700–800 nm) by integrating chlorophyll f and d in their photosystems and producing red-shifted allophycocyanin. Chlorophyll f insertion enables the photosystems to use FRL but slows down charge separation, reducing photosynthetic efficiency. Here we demonstrate with time-resolved fluorescence spectroscopy that on average charge separation in chlorophyll- f -containing Photosystem II becomes faster in the presence of red-shifted allophycocyanin antennas. This is different from all known photosynthetic systems, where additional light-harvesting complexes increase the overall absorption cross section but slow down charge separation. This remarkable property can be explained with the available structural and spectroscopic information. The unique design is probably important for these cyanobacteria to efficiently switch between visible and far-red light. Some cyanobacteria acclimate to far-red light by integrating chlorophyll f into their photosystems. Additional chlorophylls typically slow down charge separation but here the authors show that charge separation in chlorophyll-f-containing Photosystem II is faster in the presence of red-shifted allophycocyanin antennas.
Cyanobacteria carry out photosynthetic light-energy conversion using phycobiliproteins for light harvesting and the chlorophyll-rich photosystems for photochemistry. While most cyanobacteria only absorb visible photons, some of them can acclimate to harvest far-red light (FRL, 700–800 nm) by integrating chlorophyll f and d in their photosystems and producing red-shifted allophycocyanin. Chlorophyll f insertion enables the photosystems to use FRL but slows down charge separation, reducing photosynthetic efficiency. Here we demonstrate with time-resolved fluorescence spectroscopy that on average charge separation in chlorophyll-f-containing Photosystem II becomes faster in the presence of red-shifted allophycocyanin antennas. This is different from all known photosynthetic systems, where additional light-harvesting complexes increase the overall absorption cross section but slow down charge separation. This remarkable property can be explained with the available structural and spectroscopic information. The unique design is probably important for these cyanobacteria to efficiently switch between visible and far-red light.Some cyanobacteria acclimate to far-red light by integrating chlorophyll f into their photosystems. Additional chlorophylls typically slow down charge separation but here the authors show that charge separation in chlorophyll-f-containing Photosystem II is faster in the presence of red-shifted allophycocyanin antennas.
ArticleNumber 3562
Author Bersanini, Luca
Mascoli, Vincenzo
van Amerongen, Herbert
Croce, Roberta
Bhatti, Ahmad Farhan
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  organization: Department of Physics and Astronomy and Institute for Lasers, Life and Biophotonics, Faculty of Sciences, Vrije Universiteit Amsterdam
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  surname: van Amerongen
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  organization: Department of Physics and Astronomy and Institute for Lasers, Life and Biophotonics, Faculty of Sciences, Vrije Universiteit Amsterdam
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    fullname: SI Allakhverdiev
– volume: 82
  start-page: 1586
  year: 2002
  ident: 31099_CR35
  publication-title: Biophys. J.
  doi: 10.1016/S0006-3495(02)75510-0
  contributor:
    fullname: FL De Weerd
– volume: 131
  start-page: 187
  year: 2017
  ident: 31099_CR24
  publication-title: Photosynth. Res.
  doi: 10.1007/s11120-016-0303-5
  contributor:
    fullname: M-Y Ho
– volume: 1861
  start-page: 148064
  year: 2020
  ident: 31099_CR18
  publication-title: Biochim. Biophys. Acta - Bioenerg.
  doi: 10.1016/j.bbabio.2019.148064
  contributor:
    fullname: M-Y Ho
SSID ssj0000391844
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Snippet Cyanobacteria carry out photosynthetic light-energy conversion using phycobiliproteins for light harvesting and the chlorophyll-rich photosystems for...
Abstract Cyanobacteria carry out photosynthetic light-energy conversion using phycobiliproteins for light harvesting and the chlorophyll-rich photosystems for...
Some cyanobacteria acclimate to far-red light by integrating chlorophyll f into their photosystems. Additional chlorophylls typically slow down charge...
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SubjectTerms 140/125
631/449/1734/2076
631/449/1734/2077
631/57/2267
Absorption
Absorption cross sections
Antennas
Charge efficiency
Chlorophyll
Cyanobacteria
Energy conversion
Fluorescence
Fluorescence spectroscopy
Humanities and Social Sciences
multidisciplinary
Photochemistry
Photons
Photosynthesis
Photosystem II
Phycobiliproteins
Quantum efficiency
Science
Science (multidisciplinary)
Separation
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Title The antenna of far-red absorbing cyanobacteria increases both absorption and quantum efficiency of Photosystem II
URI https://link.springer.com/article/10.1038/s41467-022-31099-5
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https://pubmed.ncbi.nlm.nih.gov/PMC9213480
https://doaj.org/article/5660add705d3405b88208a77aa73ead5
Volume 13
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