Bays in coastal upwelling regions are physically driven and biochemically fueled by their
interaction with open coastal waters. Wind-driven flow over the shelf imposes a circulation in …

Central and South America (CSA) is a highly diverse region, both culturally and biologically.
It has one of the highest levels of biodiversity on the planet (Hoorn et al., 2010; Zador et al …

Accelerating CO 2 emissions have driven physico-chemical changes in the world's oceans,
such as ocean acidification and warming. How marine organisms adjust or succumb to such …

Understanding how marine species cope with the natural environmental variability of their
native habitats will provide significant information about their sensitivity to the potential …

Current climate projections for mid-latitude regions globally indicate an intensification of
wind-driven coastal upwelling due to warming conditions. The dynamics of mid-latitude …

Ocean acidification has the potential to significantly impact both aquaculture and wild-
caught mollusk fisheries around the world. In this work, we build upon a previously …

The exposure to environmental variations in pH and temperature has proven impacts on
benthic ectotherms calcifiers, as evidenced by tradeoffs between physiological processes …

Anthropogenically induced global climate change has caused profound impacts in the world
ocean. Climate change related stressors, like ocean acidification (OA) and warming (OW) …

Coastal biota is exposed to continuous environmental variability as a consequence of
natural and anthropogenic processes. Responding to heterogeneous conditions requires …

Ocean Negative Carbon Emission (ONCE) involves utilizing natural marine chemistry and
biology, along with mariculture, to achieve carbon sink goals. Growing awareness of the …