ForeSight: Predicting and monitoring drought-linked forest growth decline across Europe

Funded by Natural Environment Research Council.

Collaboration with Durham University and Forest Research.

More intense drought and increased temperatures reduce tree growth and drive tree die-back and mortality across the globe. While this problem has been recognized for some time, the processes and geographical extent of forest growth reduction and die-off are not well understood. Predicting the response of Europe’s forests to drought and temperature change is a key challenge because forests have enormous economic and ecological benefits that will be impacted as climate warms and becomes more extreme. Addressing this problem requires an interdisciplinary approach that brings together world-leading expertise in in forest ecology, Earth observation, dendroecology and process-based modelling. Our team has a strong record of scientific excellence and method development as well as expertise in transferring scientific advances into practical applications with international policy and economic impact. We use European beech as an indicator species to study this problem because it is the most widespread broadleaf tree in Europe covering over 15 million hectares. Beech produces valuable wood with very diverse uses and it is known to be at high risk from drought-linked die-back and mortality. Our research is highly novel because it will link together satellite observations and process-based models calibrated from the European Beech Tree Ring Network, a data network that provides a detailed picture of tree growth from about ten thousand individual trees across 25 countries. These data will enable us to model the processes of tree growth suppression and to map and monitor drought-stress vulnerability across the entire range of beech in near real-time. We will advance knowledge of the response of beech to environmental variation and produce models that predict tree growth based on local climate and soil moisture across Europe. The models and tree ring data will provide a detailed picture of growth suppression and dieback risk. Furthermore, we will combine the site-specific models with satellite data to establish an open-source web-based monitoring platform that will form the basis for decision support for forest managers and policy makers. This project is highly timely, since cloud-based computer processing of satellite imagery now avoids the need to download and pre-process large volumes of satellite data. Such cloud processing makes data analysis at this scale efficient and cost effective, with outputs available to all via a simple web-based interface. We will contribute major new scientific insights into forest growth reduction and die-off in response to drought, with substantial benefits for improving our understanding of impacts on our ecoststems and atmosphere. Furthermore, we will apply our research to provide operational guidance on species suitability and growth predictions for forest management. In the UK this will be achieved by working with Forest Research to improve their Ecological Site Classification Decision Support System for beech. The system is open to all and is widely used by foresters and policy advisers. Once adapted using our results for beech, these changes to decision support tools can be extended to other forest-forming tree species and will also underpin future planning of semi-natural woodland in the UK. Our project outputs will give broad benefit from cutting edge research to forest decision support. We will map early-warning signals of growth decline and mortality and impacts of drought on growth across the entire range of European beech. We will predict future impacts of climate change on forest growth and mortality, improve estimates of forest carbon uptake and provide the tools to monitor these effects using satellite data. Overall, our research will substantially advance our understanding of past, present and future drought impacts on beech forest across Europe and provide the capability to monitor and manage our forests for the future.

Total award value £646,785.61

People (1)


Professor Alistair Jump

Professor Alistair Jump

Dean of Natural Sciences, NS Management and Support

Outputs (5)



West E, Morley PJ, Jump AS & Donoghue DNM (2022) Satellite data track spatial and temporal declines in European beech forest canopy characteristics associated with intense drought events in the Rhön Biosphere Reserve, Central Germany. Plant Biology.


Zang CS, Buras A, Esquivel-Muelbert A, Jump AS, Rigling A & Rammig A (2020) Standardized drought indices in ecological research: why one size does not fit all. Refers to: Slette, IJ, Post, AK, Awad, M, et al. How ecologists define drought, and why we should do better. Glob Change Biol. 2019; 25: 3193– 3200. Global Change Biology, 26 (2), pp. 322-324.