Climate & Monitoring



Research in the section covers the topics below.


Charlotte Scheutz
Professor, Head of Section Climate and Monitoring
DTU Environment
+45 45 25 16 07



Environmental monitoring

The monitoring program is carried out for the Kingdom of Denmark including Faroe Islands and Greenland covering both terrestrial and marine systems. The program includes sampling of a large variety of samples (air, fresh and sea water, food, plants, marine animals, soil and sediment), sample preperation, radiochemical analysis and measurements.

Global climate change

Quantification of biosphere-atmosphere exchange of greenhouse gases, feedback mechanisms between terrestrial ecosystems and the atmosphere, and studies of the effects of climate change on the functioning, productivity, and carbon sequestration potential of terrestrial ecosystems.

Landfill gas management

Organic waste in landfills generates methane, the most prominent greenhouse gas emission route from waste. Biocover technologies involving on-site microbial methane oxidation processes provide full-scale approaches for mitigation of these methane emissions.



The functional relationships between hydrology and ecology at multiple scales for freshwater and terrestrial ecosystems are investigated. We develop and apply ecohydrological indicators for risk assessing land degradation, drought, multiple stressors (e.g. pollutants) on ecosystem resilience.

Nuclear decommissioning

Radioecology & Tracer Studies is capable of conducting all steps of sample processing, data analysis and customer support. Our state-of-the-art methods have been applied successfully for the determination of difficult-to-measure radionuclides as well as gamma emitters in various samples (e.g. metals, steel, graphite, concrete, plastic, soil, sludge water, ion-exchange resin, evaporate concentrate) from decommissioning of nuclear facilities.

Air pollution

Quantification of vegetation uptake of gaseous pollutants (e.g. tropospheric ozone) and determination of effects in combination with environmental parameters e.g. increased temperature. Quantification of anthropogenic particle sources (wood stoves, road traffic & ships) for determination of potential health effects.

Past, present and future rainfall extremes

Rainfall observations from gauges and weather radar, scaling from point rainfall to high-resolution weather models used in climate change predictions, non-stationary point process models, climate change factors for design, Tools to guide design and analysis.

Ecosystem services and resilience

Observation and modeling of the anthropogenic influence on terrestrial ecosystems with the goal of maintaining their services for humankind such as climate and air quality regulation, water, food, energy, etc. Apply knowledge of ecosystem resource efficiency to design industrial symbioses.

Remote sensing of terrestrial ecosystems

Interactions of the terrestrial biosphere with the carbon and hydrological cycles and the atmosphere. Methods used include optical and thermal remote sensing from satellites and UAS (Unmanned Aerial Systems), in situ sensors and biophysical models.

Climate change impacts and adaptation

Cities of the future, impacts from rainfall and storm surges, risk-based design of urban water infrastructure, hydrological modelling of novel urban drainage systems, multifunctional solutions, decision making under uncertainty, innovation on climate adaptation.

Modelling in Water Resources Engineering

Analytical and numerical models are used to quantitatively analyze water resources engineering problems aiding in the interpretation of data, development of conceptual models, design of experiments and field campaigns, and scenario evaluation for decision making.

Radioecology and nuclear emergency preparedness

The major objectives of the radioecological studies are inventory estimates, source identification, understanding of transfer processes for radioactive pollutants and dose assessments. Research on nuclear and radiological emergencies is focused on improving the knowledge platform for decision makers to justify and optimize intervention strategy plans and secure operationality.

Real time modelling for warning and control

Rainfall forecasts, in-situ probes and software sensors, on-line data assimilation and deterministic-stochastic modelling. Flood warning and risk-based, dynamically optimized control of sewer systems and wastewater treatment plants.

Measurement of gaseous emissions

Quantification and control of fugitive greenhouse gas emissions from waste and biomass technologies is important for emission mitigation. Advanced full-scale measurement techniques offer new knowledge as basis for mitigation actions.

Measurement of hydrological processes

We develop new measurement techniques for water resources and hydrological processes, using satellite remote sensing, unmanned airborne vehicle surveys, and near-surface geophysics. Data are used to inform models, forecasting tools and decision support systems.

Tracer Studies

Climate change is closely linked to the ocean water movement and the ocean-atmospheric interaction. Studies using radioactive tracer are important to facilitating out better understanding in ocean water body movement as well as the interaction between ocean and atmosphere. Tracer studies in geological dating, soil erosion, biological studies, air pollution and circulation of fresh water have also been carried out.

Hydroeconomic analysis

We develop decision support tools for sustainable water resources management using stochastic optimization and system dynamics simulation models to determine the spatial, inter-temporal and inter-sectoral trade-offs in water resources allocation, taking into account ecosystem water requirements and the climate-water-energy-food nexus.

Karsten Arnbjerg-Nielsen, Clima Change

Cities and climate change - How to cope


Bio-cover – Reducing Greenhouse Gas Emission From Old Landfills

By Peter Kjeldsen, Professor, DTU Environment

Plants and Greenhouse Gasses - New Unaccounted Plant Sources

By Teis Nørgaard Mikkelsen, Teis Nørgaard Mikkelsen, DTU Enviroment

"Skoven som kulstoflager i et ændret klima" ved Kim Pilegaard, Professor, DTU Kemiteknik

Skove optager store mængder kuldioxid fra atmosfæren gennem fotosyntese. En del af kulstoffet bindes i vedmasse og jord. Derved modvirker skovene de globale klimaændringer. En lille ændring i træernes vækstbetingelser kan dog forskyde den hårfine balance betydeligt. Professor Kim Pilegaard fra DTU Kemiteknik giver et indblik i skovenes kulstofbalance, og hvordan den kan påvirkes af fremtidens klima.

Peter Bauer-Gottwein, Water

Observing, predicting and managing water at regional scales
16 MAY 2021