Collection of animations

This page contains a collection of various animations produced within the SLIM project. All animations are also available for downloading in mp4 (H.264/MPEG-4) format.

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Simulation of tsunami propagation after the earthquake in Tohoku, Japan in March 2011
This simulation shows how the wave develops as it propagates across the Pacific and interacts with the bathymetric features and islands. The color scale for free surface elevation is cropped at +/- 3 m to highlight the wave propagation.

 

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Simulation of tsunami propagation after the earthquake in Tohoku, Japan in March 2011
This simulation shows how the wave develops as it propagates across the Pacific and interacts with the bathymetric features and islands. The color scale for free surface elevation is cropped at +/- 10 cm to highlight the wave propagation.

 

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Propagation of an anticyclonic eddy in the mid-latitudes
Mesh is being adapted as the eddy traverses the Gulf of Mexico.
Bernard P.-E., N. Chevaugeon, V. Legat, E. Deleersnijder and J.-F. Remacle, 2007, High-order h-adaptive discontinuous Galerkin methods for ocean modeling, Ocean Dynamics, 57, 109-121 (+ Erratum, 2007, 57, 579-580) (Article - Erratum)
 Download mp4 | 1.72 MB

 

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Tidal circulation around Rattray island, the Great Barrier Reef
Strong eddies are being formed in the wake of the island. For details see the benchmark test case.
Blaise S., E. Deleersnijder, L. White and J.-F. Remacle, 2007, Influence of the turbulence closure scheme on the finite-element simulation of the upwelling in the wake of a shallow-water island, Continental Shelf Research, 27, 2329-2345 (Article)
White L. and E. Wolanski, 2008, Flow separation and vertical motions in a tidal flow interacting with a shallow-water island, Estuarine, Coastal and Shelf Science, 77, 457-466 (Article)
Download mp4 | 1.63 MB

 

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Lagrangian sea-ice model, the Arctic 
3-year simulation of the Arctic sea-ice with an adaptive, Lagrangian sea-ice model.
Download mp4 | 4.04 MB

 

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Flood in the Cleveland Bay, Great Barrier reef
Simulation of a flood event of the Ross River in the Cleveland Bay in order to study the influence of sediments on coral reef health.
Lambrechts J., C. Humphrey, L. McKinna, O. Gourgue, K.E. Fabricius, A.J. Mehta, S. Lewis and E. Wolanski, 2010, Importance of wave-induced bed liquefaction in the fine sediment budget of Cleveland Bay, Great Barrier Reef, Estuarine, Coastal and Shelf Science, 89, 154-162 (Article)
Download mp4 | 9.82 MB

 

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Tidal signal propagation in the Scheldt estuary and the adjacent continental shelf sea
Free surface elevation visualized in Google Earth. Dry areas are indicated with black color.
de Brye B., A. de Brauwere, O. Gourgue, T. Kärnä, J. Lambrechts, R. Comblen and E. Deleersnijder, 2010, A finite-element, multi-scale model of the Scheldt tributaries, River, Estuary and ROFI, Coastal Engineering, 57, 850-863 (Article)
Download mp4 | 2.6 MB

 

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Water renewal in the Scheldt estuary
The upper graph illustrates renewal water as it enters the domain of interest (visible portion of the estuary) from up- and downstream boundaries. The age of the renewal water is shown in the lower graph.
Download mp4 | 780.76 kB

 

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Residence time in the Scheldt estuary
Residence time is defined as the time that it takes for a water parcel to leave the domain of interest (the visible portion of the estuary). For more information see the CART homepage.
Download mp4 | 1.42 MB

 

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Water renewal in Lake Tanganyika
From left to right: Thickness variation of Lake Tanganyika epilimnion (warm water upper layer) and evolution of its renewing water age (defined as the mean time spent in the epilimnion since entering from the bottom layer).
Gourgue O., E. Deleersnijder and L. White, 2007, Toward a generic method for studying water renewal, with application to the epilimnion of Lake Tanganyika, Estuarine, Coastal and Shelf Science, 74, 628-640 (Article)
Download mp4 | 1.17 MB