Growth of the prominent nitrogen-fixing cyanobacterium Trichodesmium is often limited by
phosphorus availability in the ocean. How nitrogen fixation by phosphorus-limited …

All phytoplankton and higher plants perform photosynthesis, where carbon dioxide is
incorporated into biomass during cell growth. Ocean acidification (OA) has the potential to …

Acidification of seawater caused by anthropogenic carbon dioxide (CO2) is anticipated to
influence the growth of dinitrogen (N2)–fixing phytoplankton, which contribute a large …

The increase in world energy consumption, and the worries from potential future disasters
that may derive from climate change have stimulated the development of renewable energy …

Marine biological nitrogen fixation (BNF) is crucial for introducing “new nitrogen” into the
oceans. Over the past 30 years, numerous laboratory and on-board culture experiments …

Trichodesmium is a globally important marine diazotroph that accounts for approximately
60− 80% of marine biological N2 fixation and as such plays a key role in marine N and C …

The surplus of nitrogen plays a key role in the maintenance of cyanobacterial bloom when
phosphorus has already been limited. However, the interplay between high nitrogen and …

Trichodesmium spp. are diazotrophic cyanobacteria that exist as single filaments (trichomes)
and as macroscopic colonies of varying shapes formed by aggregating trichomes. The …

To understand the role of micrometer‐scale oxygen (O2) gradients in facilitating dinitrogen
(N2) fixation, we characterized O2 dynamics in the microenvironment around free‐floating …

Increases of atmospheric CO 2 concentrations due to human activity and associated effects
on aquatic ecosystems are recognized as an environmental issue at a global scale. Growing …