International audienceWe study the transport properties of mesoscale eddies (i.e. vortices of 100 ∼ 200 km in diameter) over a finite time duration. While these oceanic structures are well-known to stir and mix surrounding water, they can also carry and transport water properties in a coherent manner. In this paper, we are interested in dynamic transport properties of these coherent structures, despite their chaotic environment. Here, we reveal that such vortices can be identified based a simple decomposition of their Lagrangian trajectories. We identify and extract coherent vortices as material lines along which particles' trajectories share similar polar rotations. The proposed method identifies coherent vortices and their centers in auto...
Lagrangian coherent structures (LCS) are recently defined structures used to analyze transport in dy...
The Lagrangian dynamics of two-dimensional incompressible fluid flows is considered, with emphasis o...
Author Posting. © The Author(s), 2018. This is the author's version of the work. It is posted here ...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices of 100 ∼ ...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices between a...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices between a...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices between a...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices between a...
International audienceWe study the transport properties of coherent vortices over a finite time dura...
Highlights: • Lagrangian vortices are identified in a mesoscale eddy-permitting ocean model. • Rig...
Available online 31 January 2018The notion of a Lagrangian Coherent Structure (LCS) is by now well e...
We introduce a simple variational principle for coherent material vortices in two-dimensional turbul...
Quasi two-dimensional turbulent flows, like mesoscale oceanic and large-scale atmospheric flows, cre...
One serious issue in Environmental Science and Engineering concerns the prediction of the fate of co...
▪ Abstract This article reviews the transport properties of coherent vortices in rotating barotropi...
Lagrangian coherent structures (LCS) are recently defined structures used to analyze transport in dy...
The Lagrangian dynamics of two-dimensional incompressible fluid flows is considered, with emphasis o...
Author Posting. © The Author(s), 2018. This is the author's version of the work. It is posted here ...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices of 100 ∼ ...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices between a...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices between a...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices between a...
International audienceWe study the transport properties of mesoscale eddies (i.e. vortices between a...
International audienceWe study the transport properties of coherent vortices over a finite time dura...
Highlights: • Lagrangian vortices are identified in a mesoscale eddy-permitting ocean model. • Rig...
Available online 31 January 2018The notion of a Lagrangian Coherent Structure (LCS) is by now well e...
We introduce a simple variational principle for coherent material vortices in two-dimensional turbul...
Quasi two-dimensional turbulent flows, like mesoscale oceanic and large-scale atmospheric flows, cre...
One serious issue in Environmental Science and Engineering concerns the prediction of the fate of co...
▪ Abstract This article reviews the transport properties of coherent vortices in rotating barotropi...
Lagrangian coherent structures (LCS) are recently defined structures used to analyze transport in dy...
The Lagrangian dynamics of two-dimensional incompressible fluid flows is considered, with emphasis o...
Author Posting. © The Author(s), 2018. This is the author's version of the work. It is posted here ...