The objective of this project is to leverage already existing samples, obtained from previously NSF-funded research in the North Pacific and North Atlantic, to study how environmental and latitudinal gradients affect the abundances, diversity, and size distribution of zooplankton in the midwater
Research in the Invertebrate Physiology Lab addresses the hypothesis that global change is affecting the physiological function and geographic distribution of marine animal species, resulting in broader ecological impacts

One of the major challenges when modeling any system is the magnitude of the uncertainties present in the system. In oceanography, the uncertainties in biogeochemical models regarding the metazoan contribution are significantly large. Dr. Leocadio Blanco-Bercial’s research is focused on quantitatively investigating how diversity (in its many facets) is responsible for a portion of those uncertainties, and identifying how the nature of the open ocean environment shapes diversity from the surface to the deep ocean.

On Earth, life and climate are inextricably linked through a variety of interacting cycles and feedback loops. Because these cycles involve biological, geological and chemical processes, scientists refer to them as “biogeochemical cycles” – with the carbon cycle being of particular focus for many research studies.

The OFP time-series of particle flux in the Sargasso Sea provides key data central to understanding how climate patterns affect the ocean's interior
One of the longest-running deep-ocean time series in the world, with records of ocean temperature and chemistry dating back to 1954.
BIOS routinely provides the Bermuda Government with scientific data on the quality of the island’s air and near-shore waters to inform a variety of public health and planning efforts
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