Coral reef ecosystems thrive in tropical oligotrophic oceans because of the relationship
between corals and endosymbiotic dinoflagellate algae called Symbiodinium …

After three decades of coral research on the impacts of climate change, there is a wide
consensus on the adverse effects of heat-stress, but the impacts of ocean acidification (OA) …

Light quantity and quality are among the most important factors determining the physiology
and stress response of zooxanthellate corals. Yet, almost nothing is known about the light …

Coral reefs are under major threat from ocean warming. When temperatures become too
high corals bleach, expelling their symbiotic, photosynthetic microalgae (Symbiodinium) …

Warmer than average summer sea surface temperature is one of the main drivers for coral
bleaching, which describes the loss of endosymbiotic dinoflagellates (genus: S …

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 …

The global rise in sea surface temperatures causes regular exposure of corals to high
temperature and high light stress, leading to worldwide disastrous coral bleaching events …

Corals are among the most active producers of dimethylsulfoniopropionate (DMSP), a key
molecule in marine sulfur cycling, yet the specific physiological role of DMSP in corals …

Coral bleaching is caused by environmental stress and susceptibility to bleaching stress
varies among types of coral. The physiological properties of the algal symbionts …

High sea surface temperature accompanied by high levels of solar irradiance is responsible
for the disruption of the symbiosis between cnidarians and their symbiotic dinoflagellates …