Temperature strongly affects phytoplankton growth rates, but its effect on communities and
ecosystem processes is debated. Because phytoplankton are often limited by light …

Phytoplankton physiology is dynamic and highly responsive to the environment.
Phytoplankton acclimate to changing environmental conditions by a complex reallocation of …

Light‐dependent growth of phytoplankton is a fundamental process in marine ecosystems,
but we lack a comprehensive view of how light utilization traits vary across genotypes and …

Micronutrients control phytoplankton growth in the ocean, influencing carbon export and
fisheries. It is currently unclear how micronutrient scarcity affects cellular processes and how …

In a changing world, phytoplankton communities face a large variety of challenges including
altered light regimes. These alterations are caused by more pronounced stratification due to …

The elemental stoichiometry of marine phytoplankton plays a critical role in global
biogeochemical cycles through its impact on nutrient cycling, secondary production, and …

The ability to quantify spatio-temporal variability in phytoplankton growth and productivity is
essential to improving our understanding of global carbon dynamics and trophic energy …

Thalassiosira gravida is a major Arctic diatom responsible for the under-ice spring bloom.
We investigated T. gravida physiological plasticity growing it at two temperatures (0 and 5° …

The advent of genomic‐, transcriptomic‐and proteomic‐based approaches has
revolutionized our ability to describe marine microbial communities, including biogeography …

Phytoplankton regulate internal pigment concentrations in response to light and nutrient
availability. Chlorophyll a to phytoplankton carbon ratios (chl: C phyto) are commonly …