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Continental drift hypothesis

The comparison of geographic and geologic continental features across oceans that encouraged the continental drift hypothesis.

The comparison of continental coastline geometries, rock types and patterns, fossils, and glacial formations across oceans that encouraged the continental drift hypothesis.

This map displays a simplified view of the early supercontinent Gondwana. During the time of Gondwana, present-day continents were geographically assembled like a jigsaw puzzle. Continental deformation such as mountain chains, glacial erosion patterns, and the distribution of plants and animals left their marks across the entire supercontinent. When it eventually split up, at around 180 Million years ago, some of these marks were preserved in the geologic record of the dispersed present-day continents.

Geologists, amongst which Antonio Snider-Pellegrini and Alfred Wegener, realised that some of the fossils of similar organisms matched across the present-day continents and encouraged the revolutionary theory of continental drift. Continental drift describes one of the earliest ways geologists thought continents moved over time. More than fifty years later, this theory evolved into the concept of Ocean-plate tectonics, that describes the plate motion at the Earth’s surface as the uppermost dynamic part of mantle convection, the overturn of Earth’s solid but viscous silicate mantle.

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Continental rift evolution (animation)

Continental rift evolution—from inception to breakup—accounting for surface processes and tectonic deformation.

Continental rift evolution—from inception to breakup—accounting for surface processes and tectonic deformation. Shown is the rifting evolution of a regional 3-D model covering upper crust, lower crust, and mantle lithosphere atop an asthenospheric layer. The rift fault network evolves through five major phases: (a) distributed deformation and coalescence, (b) fault system growth, (c) fault system decline and basinward localization, (d) rift migration, and (e) breakup. Sediments not only interact with tectonic deformation but they also record subsidence, block rotation, and rift migration. The visualisation is based on coupled numerical models of geodynamics (ASPECT) and landscape evolution (FastScape). The animation is based on the reference model of Neuharth et al., 2022.

  • Creator: Sascha Brune and Derek Neuharth
  • Original version: 26.05.2024
  • This version: 27.11.2024
  • License: Attribution-ShareAlike 4.0 International (CC BY-SA 4.0)
  • Specific citation: These animation Sascha Brune and Derek Neuharth is based on Neuharth et al. (2022) and available via the open-access s-ink.org repository.
  • Related reference: Neuharth, D., Brune, S., Wrona, T., Glerum, A., Braun, J., & Yuan, X. (2022). Evolution of Rift Systems and Their Fault Networks in Response to Surface Processes. Tectonics, 41(3), e2021TC007166. https://doi.org/10.1029/2021TC007166

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