project D1 of DFG-funded research group RiftLink; regional climate model CCLM4 (cosmo4.8_clm14); control simulation with preindustrial greenhouse gas concentrations, topography and land-sea-mask (prebe01);
project D1 of DFG-funded research group RiftLink;
regional climate model CCLM4 (cosmo4.8_clm14);
late miocene simulation (7 Ma BP) with adapted greenhouse gas concentrations (CO2: 300 ppmv) and topography
project D1 of DFG-funded research group RiftLink; regional climate model CCLM4 (cosmo4.8_clm14); middle miocene simulation (14 Ma BP) with adapted greenhouse gas concentrations (CO2: 300 ppmv), topography
project D1 of DFG-funded research group RiftLink;
regional climate model CCLM4 (cosmo4.8_clm11);
control simulation with present-day greenhouse gas concentrations and topography (cih7);
driven by CCLM4
project D1 of DFG-funded research group RiftLink;
regional climate model CCLM4 (cosmo4.8_clm11);
tectonic simulation with present-day greenhouse gas concentrations and smoothed rifts and shoulders over
project D1 of DFG-funded research group RiftLink;
regional climate model CCLM4 (cosmo4.8_clm11);
control simulation with present-day greenhouse gas concentrations (cit6);
driven by ERA-Interim reanalysis;
project D1 of DFG-funded research group RiftLink;
regional climate model CLM3.2 with orbital routine;
control simulation with preindustrial greenhouse gas concentrations, orbital parameters and topography
project D1 of DFG-funded research group RiftLink;
regional climate model CLM3.2 with orbital routine;
orbital simulation with Eemian (125 ka BP) greenhouse gas concentrations (CO2: 270 ppm, CH4: 630
project D1 of DFG-funded research group RiftLink;
regional climate model CLM3.2 with orbital routine;
tectonic simulation with 50% reduction of topography over Eastern and Southern Africa and preindustrial