UNDERSTANDING
the carbon cycle
The Ocean takes up about 25% of the carbon we add to the atmosphere, slowing Climate Change, reducing its intensity and giving us more time to mitigate and adapt to its consequences.
IDENTIFYING
carbon sources
This uptake may change as a result of emission reductions, climate change itself and industrial processes such as fishing and mineral resource extraction whose impact may be large enough to interfere with Ocean carbon uptake.
PROVIDING
carbon knowledge tools
OceanICU will provide fundamental knowledge and tools to help policy makers, regulators and Ocean users manage and understand the impact of their actions and decisions on Ocean carbon and hence climate.
UNDERSTANDING
the carbon cycle
The Ocean takes up about 25% of the carbon we add to the atmosphere, slowing Climate Change, reducing its intensity and giving us more time to mitigate and adapt to its consequences.
IDENTIFYING
carbon sources
This uptake may change as a result of emission reductions, Climate Change itself and industrial processes such as fishing and mineral resource extraction whose impact may be large enough to interfere with Ocean C uptake.
PROVIDING
carbon knowledge tools
OceanICU will provide fundamental knowledge and tools to help policy makers, regulators and Ocean users manage and understand the impact of their actions and decisions on Ocean Carbon and ultimately the natural ecosystem.
Expected outcomes
Enhanced Ocean exploration around the role of biological groups in the sequestration of carbon by the Ocean.
Increased understanding and predictability and reduced uncertainty in the Ocean carbon cycle.
Improved understanding of new models and tools promoted by OceanICU.
Connecting OceanICU to end users
OceanICU will acquire knowledge of the global carbon cycle
to provide practical tools for policy makers, regulators and ocean users.
Biological Carbon Pump processes considered in OceanICU
OceanICU will improve our understanding of the Ocean C Cycle. The Ocean carbon cycle plays a crucial role in regulating the global climate, taking up approximately 25% of the CO₂ emitted into the atmosphere and separately storing massive quantities of carbon in the Ocean interior, much of it via a series of processes known as the biological carbon pump.”
Recent work suggests a much higher level of complexity in the biological carbon pump functioning than previously thought, including important roles for higher trophic level organisms and a broad range of fish associated processes. Looking to the future, humanity will become increasingly reliant on the Ocean for resources via fishing (protein), mining (trace metals) and energy extraction (wind). The European Green Deal demands that we develop ways to undertake these resource extraction activities in a climate neutral way. The consequences of these resource extraction activities (e.g. biomass removal via fishing or suspended sediment generation via industrial processes) disproportionately impact the higher Trophic levels, which are crucially important in the global carbon cycle but poorly understood. The project results will help Science fill these important knowledge gaps.
