SULIS Mauro

Unit: Environmental Sensing and Modelling

Group: Remote Sensing & Natural Resources Modelling

Social links: LinkedIn  /  Twitter  /  Google Scholar

Languages: Italian, English, French, German

Contact

About

My research focuses on the exchanges and feedback mechanisms within the integrated groundwater-to-atmosphere water-energy-carbon cycle, with a particular emphasis on the role of vegetation. To address fundamental research questions, I develop innovative coupling strategies that account for the varying spatial and temporal scales of the involved bio-geo-physical processes. My approach combines synergistic use of numerical simulations and multi-source observations, employing advanced numerical techniques. I leverage high-performance computing technology while adhering to scientific and technical standards that promote the principles of sharing and reusing scientific discoveries.

Mission

I am Lead Research&Technology Scientist at LIST, where I lead research projects investigating the role of plant hydraulic traits in predicting physiological responses, species distribution, and the long-term resilience of forest ecosystems to environmental changes. I coordinate scientific initiatives that merge physically-based numerical simulations with data-driven approaches to prototype operational crop yield forecasting tools. Additionally, I lead high-resolution, convection-permitting climate simulation activities, which will provide the scientific foundation for Luxembourg's next National Communication to the UNFCCC. My research is conducted in close collaboration with the Community Terrestrial Systems Model (CTSM) scientific community, the EURO-CORDEX working group of the COSMO-CLM model, and the development team of the Terrestrial System Modeling Platform (TerrSysMP).

Skills and expertise

  • Terrestrial Systems Modelling
  • Hydrometeorology
  • Climate Change
  • High Performance Computing

Projects

  • CAPACITY: ClimAte and Plant hydrAulics Controls on drought predIction uncertainty in a new-generation Terrestrial sYstem model
  • FORFUS: Forest function under stress
  • CHAPEL: High-resolution climate change projections for Luxembourg

Latest Publications

Sensitivity of thermal evapotranspiration models to surface and atmospheric drivers across ecosystems and aridity

Jia A., Mallick K., Lin Z., Sulis M., Szantoi Z., Zhang L., Corbari C., Munoz P.T., Nieto H., Roujean J.L., Etchanchu J., Demarty J., Mwangi S., Olioso A., Merlin O., Boulet G.

Agricultural and Forest Meteorology, vol. 376, art. no. 110930, 2026

Detecting Vegetation Stress in Mixed Forest Ecosystems Through the Joint Use of Tree-Water Monitoring and Land Surface Modeling

Jiménez-Rodríguez C.D., Fabiani G., Schoppach R., Mallick K., Schymanski S.J., Sulis M.

Water Resources Research, vol. 60, n° 8, art. no. e2024WR037194, 2024

Net fluxes of broadband shortwave and photosynthetically active radiation complement NDVI and near infrared reflectance of vegetation to explain gross photosynthesis variability across ecosystems and climate

Mallick K., Verfaillie J., Wang T., Ortiz A.A., Szutu D., Yi K., Kang Y., Shortt R., Hu T., Sulis M., Szantoi Z., Boulet G., Fisher J.B., Baldocchi D.

Remote Sensing of Environment, vol. 307, art. no. 114123, 2024

Soil and Atmospheric Drought Explain the Biophysical Conductance Responses in Diagnostic and Prognostic Evaporation Models Over Two Contrasting European Forest Sites

Mallick K., Sulis M., Jiménez-Rodríguez C.D., Hu T., Jia A., Drewry D.T.

Journal of Geophysical Research Biogeosciences, vol. 129, n° 6, art. no. e2023JG007784, 2024

The Role of the Intraspecific Variability of Hydraulic Traits for Modeling the Plant Water Use in Different European Forest Ecosystems

Jiménez-Rodríguez C.D., Sulis M., Schymanski S.

Journal of Advances in Modeling Earth Systems, vol. 16, n° 3, art. no. e2022MS003494, 2024

How can we help you?

By content type (optional)