Centric diatoms isolated from open ocean environments require higher concentrations of Cu for growth than their coastal counterparts. In artificial seawater medium containing,1 nmol L21 Cu, three coastal species maintained near maximum rates of growth, but the oceanic clones were unable to survive. Copper limitation was more severe in the diatoms grown in low- than in high-Fe seawater, suggesting that Cu and Fe were interacting essential resources. The interactive effect was in part the result of a Cu requirement for Fe transport. Thalassiosira weissflogii and Thalassiosira oceanica had lower Fe quotas and slower rates of Fe uptake when [Cu] was reduced in the medium. Brief exposure of Cu-limited cells to 10 nmol L21 Cu increased the instan...
We report results of laboratory studies examining the effect of low levels of iron (Fe) availability...
We report results of laboratory studies examining the effect of low levels of iron (Fe) availability...
International audienceIn ∼ 50% of the ocean, iron (Fe) limits phytoplankton growth, including that o...
We investigated the effects of copper (Cu) and iron (Fe) availability on the growth rates, cellula...
Copper nutrition is essential for the growth of marine diatoms, especially under Fe-limiting conditi...
Copper (Cu), one of about seven essential metals used by photoautotrophs, is a limiting resource in ...
We investigated copper (Cu) acquisition mechanisms and uptake kinetics of the marine diatoms Thalass...
The smallest free living eukaryote known as Ostreococcus tauri became along with some related specie...
The chemical speciation of Fe and Cu in marine waters impart a strong selective pressure on phytopla...
Productivity in large areas of the world's oceans is limited by low concentrations of dissolved iro...
Similar sigmoidal relationships were observed between cellular Cu: C ratios and free cupric ion conc...
The physiology of 2 oceanic phytoplankton species freshly isolated from the subarctic Pacific (Stat...
Copper (Cu) is an essential micronutrient for phytoplankton, particularly during iron limitation, bu...
Copper (Cu) is an essential micronutrient for phytoplankton, particularly during iron limitation, bu...
We have performed an in situ test of the iron limitation hypothesis in the subarctic North Pacific O...
We report results of laboratory studies examining the effect of low levels of iron (Fe) availability...
We report results of laboratory studies examining the effect of low levels of iron (Fe) availability...
International audienceIn ∼ 50% of the ocean, iron (Fe) limits phytoplankton growth, including that o...
We investigated the effects of copper (Cu) and iron (Fe) availability on the growth rates, cellula...
Copper nutrition is essential for the growth of marine diatoms, especially under Fe-limiting conditi...
Copper (Cu), one of about seven essential metals used by photoautotrophs, is a limiting resource in ...
We investigated copper (Cu) acquisition mechanisms and uptake kinetics of the marine diatoms Thalass...
The smallest free living eukaryote known as Ostreococcus tauri became along with some related specie...
The chemical speciation of Fe and Cu in marine waters impart a strong selective pressure on phytopla...
Productivity in large areas of the world's oceans is limited by low concentrations of dissolved iro...
Similar sigmoidal relationships were observed between cellular Cu: C ratios and free cupric ion conc...
The physiology of 2 oceanic phytoplankton species freshly isolated from the subarctic Pacific (Stat...
Copper (Cu) is an essential micronutrient for phytoplankton, particularly during iron limitation, bu...
Copper (Cu) is an essential micronutrient for phytoplankton, particularly during iron limitation, bu...
We have performed an in situ test of the iron limitation hypothesis in the subarctic North Pacific O...
We report results of laboratory studies examining the effect of low levels of iron (Fe) availability...
We report results of laboratory studies examining the effect of low levels of iron (Fe) availability...
International audienceIn ∼ 50% of the ocean, iron (Fe) limits phytoplankton growth, including that o...