Add to ORKGThe fate of diatoms in future acidified oceans could have dramatic implications on marine ecosystems, because they account for ~40% of marine primary production. Here, we quantify resilience of Thalassiosira pseudonana in mid-20th century (300 ppm C
Diatoms are so important in ocean food-webs that any human induced changes in their abundance could ...
Diatoms and other phytoplankton in coastal waters experience rapid pH changes in milieu due to high ...
The effects of ocean acidification and increased temperature on physiology of six strains of the pol...
The fate of diatoms in future acidified oceans could have dramatic implications on marine ecosystems...
Acidification of the ocean due to high atmospheric CO2 levels may increase the resilience of diatoms...
Shifts in phytoplankton composition and productivity are anticipated in the future, because phytopla...
The sustained absorption of anthropogenically released atmospheric CO2 by the oceans is modifying se...
As phytoplankton provide the carbon and the energy for all higher trophic levels in the oceans, futu...
Acidification of the ocean due to high atmospheric CO2 levels may increase the resilience of diatoms...
Diatoms constitute a major group of phytoplankton, accounting for ~20% of the world’s primary produc...
In order to understand how ocean acidification (OA) and enhanced irradiance levels might alter phyto...
Diatoms are unicellular photosynthetic eukaryotic algae that account for 40% of the marine primary p...
Increasing atmospheric pCO2 leads to seawater acidification, which has attracted considerable attent...
<div><p>Diatoms and other phytoplankton in coastal waters experience rapid pH changes in milieu due ...
Marine diatoms are one of the marine phytoplankton functional groups, with high species diversity, p...
Diatoms are so important in ocean food-webs that any human induced changes in their abundance could ...
Diatoms and other phytoplankton in coastal waters experience rapid pH changes in milieu due to high ...
The effects of ocean acidification and increased temperature on physiology of six strains of the pol...
The fate of diatoms in future acidified oceans could have dramatic implications on marine ecosystems...
Acidification of the ocean due to high atmospheric CO2 levels may increase the resilience of diatoms...
Shifts in phytoplankton composition and productivity are anticipated in the future, because phytopla...
The sustained absorption of anthropogenically released atmospheric CO2 by the oceans is modifying se...
As phytoplankton provide the carbon and the energy for all higher trophic levels in the oceans, futu...
Acidification of the ocean due to high atmospheric CO2 levels may increase the resilience of diatoms...
Diatoms constitute a major group of phytoplankton, accounting for ~20% of the world’s primary produc...
In order to understand how ocean acidification (OA) and enhanced irradiance levels might alter phyto...
Diatoms are unicellular photosynthetic eukaryotic algae that account for 40% of the marine primary p...
Increasing atmospheric pCO2 leads to seawater acidification, which has attracted considerable attent...
<div><p>Diatoms and other phytoplankton in coastal waters experience rapid pH changes in milieu due ...
Marine diatoms are one of the marine phytoplankton functional groups, with high species diversity, p...
Diatoms are so important in ocean food-webs that any human induced changes in their abundance could ...
Diatoms and other phytoplankton in coastal waters experience rapid pH changes in milieu due to high ...
The effects of ocean acidification and increased temperature on physiology of six strains of the pol...