One-quarter of photosynthesis-derived carbon on Earth rapidly cycles through a set of short-
lived seawater metabolites that are generated from the activities of marine phytoplankton …

Predicting the effects of multiple global change stressors on microbial communities remains
a challenge because of the complex interactions among those factors. Here, we explore the …

Global photosynthesis consumes ten times more CO2 than net anthropogenic emissions,
and microalgae account for nearly half of this consumption. The high efficiency of algal …

Subcellular compartmentalization confers evolutionary advantage to eukaryotic cells but
entails the need for efficient interorganelle communication. Malate functions as redox carrier …

Climate change is predicted to increase the severity and prevalence of harmful algal blooms
(HABs). In the past twenty years, omics techniques such as genomics, transcriptomics …

Primary production in the Southern Ocean is dominated by diatom‐rich phytoplankton
assemblages, whose individual physiological characteristics and community composition …

Rising atmospheric carbon dioxide (CO 2) may stimulate the proliferation of cyanobacteria.
To investigate the possible physiological responses of cyanobacteria to elevated CO 2 at …

Ongoing ocean global change due to anthropogenic activities is causing multiple chemical
and physical seawater properties to change simultaneously, which may affect the physiology …

Photosynthetic carbon fixation is often limited by CO2 availability, which led to the evolution
of CO2 concentrating mechanisms (CCMs). Some diatoms possess CCMs that employ …

The effect of rising atmospheric CO 2 on freshwater lakes is a subject of considerable
debate. However, it is not clear how rising CO 2 concentration affects cyanobacterial bloom …