Projects
In our work, we contribute to and manage various research projects.

2022-2025
EO4GRHO
The purpose of EO4GRHO (A multi-sensor synthesis for the spatiotemporal quantification of near-surface density across the Greenland Ice Sheet) is to produce a unique observation-based assessment of Greenland Ice Sheet near-surface densities and how they have evolved over the last decade. Conventionally derived using models, near-surface densities are a critical parameter required to accurately quantify and project ice sheet mass balance. This project combines active radar altimetry (ESA CryoSat-2, ISRO/CNES SARAL) with passive microwave radiometry (ESA SMOS) measurements and validates satellite results with in situ density measurements.
Funded under the ESA Living Planet Fellowship Scheme
Contact: Kirk M. Scanlan, kimis@dtu.dk
2025-2027
XFires
In this project, we support modelling multidimensional causes and impacts of extreme fires in the climate system through X-ECV analysis. The surface elevation change is acknowledged as an ECV because it provides empirical evidence for comprehending and forecasting climate evolution. We will look for a correlation between enhanced ice sheet melt extent and extreme forest fires.
Contact: Stine K. Rose, stine@dtu.dk, or Louise S. Sørensen, slss@dtu.dk
2022-2025
Leveraging Mars for Earth climate change projections
For decades, most of the advances in radar altimetry over ice sheets have been motivated by making more precise and more accurate measurements of surface elevation change. These are fundamental measurements that clearly show how anthropogenic climate change is altering Earth’s polar regions. At the same time though, advances in the radar remote sensing of Mars have shown how surface properties can be derived from the strength of reflected surface echoes. The purpose of this project is to adapt techniques developed at Mars to the remote sensing of the Greenland Ice Sheet to directly recover ice sheet surface properties such as density and surface roughness.
Funded under the Villum Experiment Programme
Contact: Kirk M. Scanlan, kimis@dtu.dk