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Diurnal Fe(II)/Fe(III) cycling and enhanced O 2 production in a simulated Archean marine oxygen oasis

The oxygenation of early Earth's atmosphere during the Great Oxidation Event, is generally accepted to have been caused by oceanic Cyanobacterial oxygenic photosynthesis. Recent studies suggest that Fe(II) toxicity delayed the Cyanobacterial expansion necessary for the GOE. This study investiga...

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Published in:Nature communications 2021-04, Vol.12 (1), p.2069
Main Authors: Herrmann, A J, Sorwat, J, Byrne, J M, Frankenberg-Dinkel, N, Gehringer, M M
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Byrne, J M
Frankenberg-Dinkel, N
Gehringer, M M
description The oxygenation of early Earth's atmosphere during the Great Oxidation Event, is generally accepted to have been caused by oceanic Cyanobacterial oxygenic photosynthesis. Recent studies suggest that Fe(II) toxicity delayed the Cyanobacterial expansion necessary for the GOE. This study investigates the effects of Fe(II) on two Cyanobacteria, Pseudanabaena sp. PCC7367 and Synechococcus sp. PCC7336, in a simulated shallow-water marine Archean environment. A similar Fe(II) toxicity response was observed as reported for closed batch cultures. This toxicity was not observed in cultures provided with continuous gaseous exchange that showed significantly shorter doubling times than the closed-culture system, even with repeated nocturnal addition of Fe(II) for 12 days. The green rust (GR) formed under high Fe(II) conditions, was not found to be directly toxic to Pseudanabaena sp. PCC7367. In summary, we present evidence of diurnal Fe cycling in a simulated shallow-water marine environment for two ancestral strains of Cyanobacteria, with increased O production under anoxic conditions.
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subjects Aquatic Organisms - drug effects
Aquatic Organisms - growth & development
Aquatic Organisms - metabolism
Archaea - drug effects
Archaea - growth & development
Archaea - metabolism
Atmosphere
Chlorophyll A - metabolism
Circadian Rhythm
Iron - metabolism
Iron - toxicity
Models, Biological
Oxygen - metabolism
Seawater
title Diurnal Fe(II)/Fe(III) cycling and enhanced O 2 production in a simulated Archean marine oxygen oasis
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