Dr. Phillips and his team are looking to create a paradigm shift in how researchers perform midwater exploration. The ‘twilight’, or mesopelagic zone, is receiving renewed interest from the oceanographic community. There are numerous undescribed species dwelling in the pelagic zone beneath the limits of technical SCUBA diving, and improved survey methods have highlighted the biomass that exists in the twilight zone and beyond.
In June, Falkor will return to the Phoenix Islands under Chief Scientist Randi Rotjan. The scientific objectives include continuing to investigate deep-sea microbes’ therapeutic potential; examining how ancient cold water corals survive predation by corallivores; and enquiring into the equator’s effect on the ecology of deep coral and sponge communities.
There are three major issues that limit widespread and frequent seafloor imaging: cost, personnel to operate platforms, and the technical complexity of long-duration vehicles. The engineering team working on this project aim to increase researchers’ ability to gather scientifically useful seafloor imagery in coastal and shelf environments with technologies that can increase ease of use while reducing costs of acquisition.
Very few deep sea areas both in and outside of Australia have been well-sampled over large spatial and temporal scales, and a large number of species still remain undiscovered and unnamed.
Rising water temperatures and increasing carbon dioxide concentrations remain among the greatest threats to ocean ecosystems globally. This warming trend and associated ocean acidification poses a unique threat to species that use calcium carbonate to build their shells or skeletons, such as corals.
This expedition will feature exploration of the Emperor Seamount Chain while researching biodiversity and its drivers. Using currents, mapping, and radio isotopes to track water masses – as well as genetic sampling of corals – the team will determine the driving force behind coral distribution in this region.
This expedition will feature exploration of the Emperor Seamount Chain while researching biodiversity and its drivers. Using currents, mapping, and radio isotopes to track water masses – as well as genetic sampling of corals – the team will determine the driving force behind coral distribution in this region.
This expedition will feature exploration of the Emperor Seamount Chain while researching biodiversity and its drivers. Using currents, mapping, and radio isotopes to track water masses – as well as genetic sampling of corals – the team will determine the driving force behind coral distribution in this region.
This expedition will feature exploration of the Emperor Seamount Chain while researching biodiversity and its drivers. Using currents, mapping, and radio isotopes to track water masses – as well as genetic sampling of corals – the team will determine the driving force behind coral distribution in this region.
This expedition will feature exploration of the Emperor Seamount Chain while researching biodiversity and its drivers. Using currents, mapping, and radio isotopes to track water masses – as well as genetic sampling of corals – the team will determine the driving force behind coral distribution in this region.
