Global climate change has intensified the need to assess the capacity for natural
populations to adapt to abrupt shifts in the environment. Reductions in seawater pH …

The global acidification of the earth's oceans is predicted to impact biodiversity via
physiological effects impacting growth, survival, reproduction, and immunology, leading to …

Physiological responses to temperature are known to be a major determinant of species
distributions and can dictate the sensitivity of populations to global warming. In contrast, little …

Ocean acidification severely affects bivalves, especially their larval stages. Consequently,
the fate of this ecologically and economically important group depends on the capacity and …

Although geographical patterns of species' sensitivity to environmental changes are defined
by interacting multiple stressors, little is known about compensatory processes shaping …

Ocean acidification poses a global threat to biodiversity, yet species might have the capacity
to adapt through evolutionary change. Here we summarize tools available to determine …

Global stressors, such as ocean acidification, constitute a rapidly emerging and significant
problem for marine organisms, ecosystem functioning and services. The coastal ecosystems …

Rising atmospheric carbon dioxide (CO2) conditions are driving unprecedented changes in
seawater chemistry, resulting in reduced pH and carbonate ion concentrations in the Earth's …

Coastal marine ecosystems experience dynamic fluctuations in seawater carbonate
chemistry. The importance of this variation in the context of ocean acidification requires …

Marine phytoplankton have many obvious characters, such as rapid cell division rates and
large population sizes, that give them the capacity to evolve in response to global change on …