Cyanobacteria have previously been considered to differ fundamentally from plants and algae in their regulation of light harvesting. We show here that in fact the ecologically important marine prochlorophyte, Prochlorococcus, is capable of forming rapidly reversible non-photochemical quenching of chlorophyll a fluorescence (NPQf or qE) as are freshwater cyanobacteria when they employ the iron stress induced chlorophyll-based antenna, IsiA. For Prochlorococcus, the capacity for NPQf is greater in high light-adapted strains, except during iron starvation which allows for increased quenching in low light-adapted strains. NPQf formation in freshwater cyanobacteria is accompanied by deep F-o quenching which increases with prolonged iron starvati...
When cyanobacteria are grown under iron-limited or other oxidative stress conditions the iron stress...
Iron (Fe) is an essential co-factor for many metabolic enzymes of photoautotrophs. Although Fe limit...
Iron availability limits primary production in >30% of the world’s oceans; hence phytoplankton ha...
AbstractCyanobacteria have previously been considered to differ fundamentally from plants and algae ...
Chlorophyll fluorescence from phytoplankton provides a tool to assess iron limitation in the oceans,...
Nonphotochemical quenching (NPQ) of excitation energy is a well-established phenomenon in green plan...
In response to iron deficiency, cyanobacteria synthesize the iron stress–induced chlorophyll binding...
Functional flexibility of light harvesting in cyanobacteria Nataliya Yeremenko 1, Roman Kouril 2, Ja...
ABSTRACT: Unlike plants, Chlamydomonas reinhardtii shows a restricted ability to develop nonphoto-ch...
AbstractWhen cyanobacteria are grown under iron-limited or other oxidative stress conditions the iro...
Diatoms, which are primary producers in the oceans, can rapidly switch on/off efficient photoprotect...
Photosynthesis uses light as a source of energy but its excess can result in production of harmful o...
International audienceAbsorption of light in excess of the capacity for photosynthetic electron tran...
AbstractDiatoms, which are primary producers in the oceans, can rapidly switch on/off efficient phot...
AbstractNon-photochemical quenching (NPQ) of chlorophyll fluorescence is thought to be an indicator ...
When cyanobacteria are grown under iron-limited or other oxidative stress conditions the iron stress...
Iron (Fe) is an essential co-factor for many metabolic enzymes of photoautotrophs. Although Fe limit...
Iron availability limits primary production in >30% of the world’s oceans; hence phytoplankton ha...
AbstractCyanobacteria have previously been considered to differ fundamentally from plants and algae ...
Chlorophyll fluorescence from phytoplankton provides a tool to assess iron limitation in the oceans,...
Nonphotochemical quenching (NPQ) of excitation energy is a well-established phenomenon in green plan...
In response to iron deficiency, cyanobacteria synthesize the iron stress–induced chlorophyll binding...
Functional flexibility of light harvesting in cyanobacteria Nataliya Yeremenko 1, Roman Kouril 2, Ja...
ABSTRACT: Unlike plants, Chlamydomonas reinhardtii shows a restricted ability to develop nonphoto-ch...
AbstractWhen cyanobacteria are grown under iron-limited or other oxidative stress conditions the iro...
Diatoms, which are primary producers in the oceans, can rapidly switch on/off efficient photoprotect...
Photosynthesis uses light as a source of energy but its excess can result in production of harmful o...
International audienceAbsorption of light in excess of the capacity for photosynthetic electron tran...
AbstractDiatoms, which are primary producers in the oceans, can rapidly switch on/off efficient phot...
AbstractNon-photochemical quenching (NPQ) of chlorophyll fluorescence is thought to be an indicator ...
When cyanobacteria are grown under iron-limited or other oxidative stress conditions the iron stress...
Iron (Fe) is an essential co-factor for many metabolic enzymes of photoautotrophs. Although Fe limit...
Iron availability limits primary production in >30% of the world’s oceans; hence phytoplankton ha...