Basin GENESIS Hub – Page 3

Badlands v1.0 is released

7 March, 201911 August, 2015 by Michael Chin

Today Tristan has released version 1.0 of Badlands, a parallel TIN-based landscape evolution model, built to simulate topography development at various space and time scales. Congratulations Tristan! Download Badlands (source code, documentation and examples) from GitHub here

Basin and Landscape Dynamics (Badlands)

7 March, 201911 August, 2015 by Michael Chin

Basin and Landscape Dynamics (Badlands) is a parallel TIN-based landscape evolution model, built to simulate topography development at various space and time scales. The model is capable of simulating hillslope processes, fluvial incision (erosion/transport/deposition), spatially and temporally varying geodynamic (3D displacements) and climatic forces which can be used to simulate changes in base level, as … Read more…

High horizontal fault displacement rates and landscape evolution

26 August, 201511 August, 2015 by Michael Chin

In this numerical model of landscape evolution we impose over 2 million of years deformation produced with the Underworld software over an initial flat surface, ie a 256 km square box at a resolution of 1 km. On top of the deformed surface, a landscape evolution model, Badlands, is used to simulate both hillslope and … Read more…

Northwest Shelf in the media

16 June, 201610 August, 2015 by Carmen Braz

An upcoming IODP expedition along the WA coast led by Prof Stephen Gallagher has received significant media attention. The two month expedition will be drilling into the seabed in order to examine the climatic conditions of the North West continental shelf over the past five million years.

Earth's climate throughout the Phanerozoic

26 July, 2015 by Ruken

Project Summary
EarthByte is involved in a series of projects aimed at understanding and modeling Earth’s climate throughout the Phanerozoic. Some of these projects include:

Future Fellowship of Maria Seton on “Oceanic gateways: a primary control on global climate change?”
Basin GENESIS Hub activities, related to the effect of the mantle, crustal deformation, erosion and sedimentary processes on sedimentary basins
ATOM – a coupled atmospheric-ocean circulation code jointly developed by Prof. Roger Grundmann and EarthByte.

EarthByte’s expertise in tectonics, geodynamics and surface process modeling is enhanced by close collaborations with leading palaeoclimate modellers and geochemical oceanographers. … Read more…

Earth’s climate throughout the Phanerozoic

30 November, 201526 July, 2015 by Michael Chin

Project Summary
EarthByte is involved in a series of projects aimed at understanding and modeling Earth’s climate throughout the Phanerozoic. Some of these projects include:

Future Fellowship of Maria Seton on “Oceanic gateways: a primary control on global climate change?”
Basin GENESIS Hub activities, related to the effect of the mantle, crustal deformation, erosion and sedimentary processes on sedimentary basins
ATOM – a coupled atmospheric-ocean circulation code jointly developed by Prof. Roger Grundmann and EarthByte.

PhD scholarship in Plate Tectonics/ Geodynamics/ Morphodynamics

6 October, 201715 January, 2015 by Michael Chin

Applications are invited for a PhD scholarship in Plate Tectonics/ Geodynamics/ Morphodynamics working with members of the Basin Genesis Hub (an ARC Industrial Transformation Research Hub) within the EarthByte Group at the School of Geosciences, The University of Sydney. Click here to learn more about the scholarship

The Basin GENESIS Hub

1 September, 202116 November, 2014 by Michael Chin

The ARC Research Hub for Basin Geo-dynamics and Evolution of Sedimentary Systems (Basin Genesis Hub, BGH) brings together a broad range of expertise for the development and application of cutting-edge numerical modelling tools with the aim of improving the understanding of the formation and evolution of basins. The coupling of the evolution of mantle flow, … Read more…

Continental rifting in 3D using Underworld

26 August, 201521 July, 2014 by Michael Chin

This model shows the evolution of a continental rift from inception to breakup, using the Underworld numerical modelling framework. The left and right walls of the model are pulled apart from each other at a total rate of 2 cm/yr to induce rifting.Courtesy of Luke Mondy, EarthByte.View other EarthByte animations on our YouTube channel