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Experiment on an artificial phytoplankton community in response to high CO2: ...
This dataset includes information specific to the Eco-Evo assay applied to a long-term community selection experiment after 80,186, and 288 days. The community contained... -
Data collection on phytoplankton from the Elbe River near Hamburg
Data on phytoplankton in the Elbe River near Hamburg from 2006 to 2023. This dataset comprises the results of a monthly survey of phytoplankton at two sites along the Elbe River... -
Seawater carbonate chemistry and changes in isotope fractionation during nitr...
We measured N and O isotope effects during nitrate assimilation and physiological states of the marine diatom Thalassiosira weissflogii and Synechococcus under different pH (8.1... -
Effects of high CO2 levels on the ecophysiology of the diatom Thalassiosira w...
Iron availability in seawater, namely the concentration of dissolved inorganic iron ([Fe']), is affected by changes in pH. Such changes in the availability of iron should be... -
Lack of evidence for elevated CO2-induced bottom-up effects on marine copepod...
Rising levels of atmospheric CO2 are responsible for a change in the carbonate chemistry of seawater with associated pH drops (acidification) projected to reach 0.4 units from... -
Detection of a variable intracellular acid-labile carbon pool in Thalassiosir...
Accumulation of an intracellular pool of carbon (C(i) pool) is one strategy by which marine algae overcome the low abundance of dissolved CO2 (CO2 (aq) ) in modern seawater. To... -
Seawater carbonate chemistry and the photophysiology of Thalassiosira pseudon...
Increasing anthropogenic carbon dioxide is causing changes to ocean chemistry, which will continue in a predictable manner. Dissolution of additional atmospheric carbon dioxide... -
Seawater carbonate chemistry and photosystem II photoinactivation of the coas...
We studied the interactive effects of pCO2 and growth light on the coastal marine diatom Thalassiosira pseudonana CCMP 1335 growing under ambient and expected end-of-the-century... -
Interactive effects of ocean acidification and nitrogen limitation on the dia...
Climate change is expected to bring about alterations in the marine physical and chemical environment that will induce changes in the concentration of dissolved CO2 and in... -
Seawater carbonate chemistry and particulate inorganic carbon, particulate or...
Coccolithophores are unicellular marine phytoplankton and important contributors to global carbon cycling. Most work on coccolithophore sensitivity to climate change has been on... -
Seawater carbonate chemistry and morphology and nutrient physiology of the co...
We investigated the effect of decreased pH on the morphology and nutrient physiology of the cosmopolitan marine diatom Thalassiosira rotula (CCMP3362) by acclimating unialgal... -
Experiment on E. huxleyi and C. affinis exposed to increased CO2: Relative im...
This dataset has no description
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Seawater carbonate chemistry and reaction norms of two oyster species living ...
We deciphered the reaction norms of two oyster species living in contrasting habitats: the intertidal oyster Crassostrea gigas and the subtidal flat oyster Ostrea edulis, which... -
Data compilation of ciliates growth rate, grazing rate and gross gowth effici...
The present data compilation includes ciliates growth rate, grazing rate and gross growth efficiency determined either in the field or in laboratory experiments. From the... -
Feeding, growth and grazing rates of planktonic ciliates determined experimen...
This dataset has no description
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Feeding, growth and grazing rates of tintinnids determined experimentally
This dataset has no description
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Feeding rates of Ciliates on Heterocapsa triquetra determined experimentally
This dataset has no description
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Feeding rates of Ciliates on Pfiesteria piscida determined experimentally
Carbon per cell of grazer calculated using the following equation of Menden-Deuer and Lessard (2000): picogram carbon per cell = 0.216biovolume*0.939. -
Feeding and growth rates of Favella sp. determined experimentally
Carbon per cell of prey calculated using the following equation of Menden-Deuer and Lessard (2000): picogram carbon per cell = 0.216biovolume*0.939. -
Feeding and growth rates of Strombidium sp. determined experimentally
Carbon per cell of grazer and prey calculated using the following equation of Menden-Deuer and Lessard (2000): picogram carbon per cell = 0.216biovolume*0.939.
