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Mars terraforming

Terraforming Mars visually using scientific colormaps of Crameri (2018).

Theoretical terraforming Mars using the Scientific colormap ‘oleron‘ of Crameri (2018) highlighting the planet’s surface dichotomy. The animation shows the digital elevation model (available from https://astrogeology.usgs.gov) based on Mars Orbiter Laser Altimeter data (MOLA; Smith et al. 1999) obtained on NASA’s Mars Global Surveyor (MGS) spacecraft (Albee et al. 2001).

  • High-res GIF and video formats
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  • Perceptually uniform colour map (but unequal representation below and above zero level)
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Population density

Population density of the world, for the year 2020.

Human population density across the world, for the year 2020. The world’s population is approximately 8’000’000’000, and the Earth’s total area, encompassing both land and water, is 510’000’000 square kilometres. Consequently, the global human population density is calculated as 8’000’000’000 divided by 510’000’000, resulting in a average value of 16 people per square kilometre. Provided are (A) a gridded visualisation with 2.5 min resolution, (B) a visualisation of the mean population density per country calculated from the 2.5 min grid (GPWv4), and (C) an animation combining graphics (A) and (B).

The Scientific colour map ‘lajolla‘ is used to represent data accurately and to all readers.

  • Gridded and mean data versions
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Cenozoic paleogeography (animation)

Global paleogeography with zoomed in figures showing the evolution of oceanic gateways active during the Cenozoic time.

Global paleogeography of Straume et al. (2020) with zoomed in figures showing the evolution of oceanic gateways active during the Cenozoic time (66 – 0 Ma).

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Paleo surface topography (animated)

Animations of the Earth’s global surface topography reconstructed through the Cenozoic time (66 – 0 Ma).

Animations of the Earth’s global surface topography reconstructed through the Cenozoic time (66 – 0 Ma). Shown is the Straume et al. (2020) paleogeography model. The Scientific colour map ‘bukavu‘ is used to represent data accurately and to all readers.

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  • Light & dark background versions
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  • Colour-vision deficiency friendly
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3-D subduction mantle flow

3-D subduction dynamics and mantle flow model animation showing the time evolution of oceanic plate subduction and resulting mantle flow.

Animation of 3-D subduction dynamics and mantle flow showing the time evolution of oceanic plate subduction with a continental part in the middle and resulting mantle flow computed in a 3-D numerical model. Although only one specific geometry, this model is useful to visualise how slabs deform at depth, how mantle flows around their edges, and how back-arc basins form.

Description of the model evolution (see below for detailed legend) – In this model, the subducting plate is mostly oceanic, but has continental lithosphere in the middle and the overriding plate is continental (see top panels at Time 0 Myr). The oceanic slab (in blue) sinks into the mantle and, at Time 8.1 Myr, continental collision happens in the middle of the subduction zone. At this point, the trench stays quasi-stationary in the middle, but starts to retreat quickly at the sides and the slab significantly deforms at depth (from Time 9.8 Myr onward). This causes the mantle to quickly flow around the slab (see how the spheres move). The large trench retreat generates a significant amount of extension in the overriding plate that eventually causes the overriding plate to break (Time 28.4 Myr). At this point, the mantle material rises towards the surface and starts melting because of decompression in the back-arc region. Melt close to trench is due to the presence of fluids released from the slab and shows the location of the volcanic arc. As the slab keeps retreating, the opening of the back-arc basin, associated with mantle melting, continues creating a wider and wider basin that will be composed of new oceanic crust generated by mantle melting.

Legend – The 3 panels are showing different views of the same model: side/top view (top left panel), top view (top right panel), and front view (bottom panel). The slab is shown in blue, continental crust in grey. In the top view (top right panel), the subducting plate is on the left side and the overriding plate is the grey area to the left. The slab will subduct towards the right. The contour in the red-to-white colour map indicates the regions where the mantle melts and the amount of melt fraction. The spheres are tracers passively transported in the mantle and colour-coded by depth; they are useful to show how the mantle flows around the slab (toroidal flow).

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Volcanic arc creation

A conceptual view of a volcanic arc growing through the evolution of magmatism in subduction zones controlled by fluid and melt fluxes.

A series of schematic cartoons (both as still and animated images) to show how a volcanic arc grows through the evolution of magmatism in subduction zones controlled by fluid and melt fluxes.

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Paleo surface topography (globe animation)

Animation of the Earth’s surface topography through the Cenozoic time (66 – 0 Ma) on the globe.

Animation of the Earth’s surface topography through the Cenozoic time (66–0 Ma) on the globe. Shown is the Straume et al. (2020) paleogeography model. The Scientific colour map ‘oleron‘ is used to represent data accurately and to all readers.

  • Annotated version
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  • Perceptually uniform colour map
  • Colour-vision deficiency friendly
  • Readable in black&white

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Earth topography (globe animation)

Animations of the Earth’s surface topography on the globe.

Animations of the Earth’s surface topography on the globe. Shown is GEBCO2019 (www.gebco.net) global relief model of Earth’s surface that integrates land topography and ocean bathymetry. The Scientific colour map ‘oleron‘ is used to represent data accurately and to all readers.

  • Annotated version
  • Transparent background
  • Suitable for light & dark backgrounds
  • Perceptually uniform colour map
  • Colour-vision deficiency friendly
  • Readable in black&white

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Mercury topography (globe animation)

Globe animations of surface topography of the planet Mercury.

Globe animations of surface topography of the planet Mercury showing data (MESS-H-MDIS-5-DEM-ELEVATION-V1.0) derived from Messenger missions. The Scientific colour map ‘batlow‘ is used to represent data accurately and to all readers.

  • Annotated version
  • Transparent background
  • Suitable for light & dark backgrounds
  • Perceptually uniform colour map
  • Colour-vision deficiency friendly
  • Readable in black&white

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