Phytoplankton are the base of the Antarctic food web, sustain the wealth and diversity of life
for which Antarctica is renowned, and play a critical role in biogeochemical cycles that …

Abstract The Southern Ocean (SO) is a major sink for anthropogenic atmospheric carbon
dioxide (CO 2), potentially harbouring even greater potential for additional sequestration of …

As the physical environment of the Arctic Ocean shifts seasonally from ice‐covered to open
water, the limiting resource for phytoplankton growth shifts from light to nutrients. To …

Studies on the long‐term responses of marine phytoplankton to ongoing ocean acidification
(OA) are appearing rapidly in the literature. However, only a few of these have investigated …

Southern Ocean waters are among the most vulnerable to ocean acidification. The projected
increase in the CO2 level will cause changes in carbonate chemistry that are likely to be …

Carbon limitation in domestic wastewater high rate algal ponds is thought to constrain
microalgal photo-physiology and productivity, particularly in summer. This paper …

There is increasing evidence that different light intensities strongly modulate the effects of
ocean acidification (OA) on marine phytoplankton. The aim of the present study was to …

Mixotrophs, organisms that combine photosynthesis and heterotrophy to gain energy, play
an important role in global biogeochemical cycles. Metabolic theory predicts that mixotrophs …

Over the past two decades, our knowledge of Symbiodinium genetic diversity and ecological
distribution has grown at an incredible pace, while the physiological diversity and how it may …

To better understand the impact of ocean acidification (OA) and changes in light availability
on Southern Ocean phytoplankton physiology, we investigated the effects of pCO2 (380 and …