Drought and Flood
The Institute has an active research team studying extreme hydrological events, including floods, droughts, and severe storms and how they impact social, environmental, and economic systems and how to manage such events.
Understanding and mitigating the impacts of these events is essential for improving how we respond, build resilience and adapt in a changing climate.
Increase in flooding events
Historical evidence shows that extreme hydrological events such as floods and droughts are becoming increasingly frequent due to changing weather patterns associated with climate change. The variability in precipitation affects water availability, leading to both water shortages during droughts and excess water during flooding, complicating water resource management. This trend poses serious risks to the economy, infrastructure, ecosystems, and communities and the cost of managing these extremes is escalating, impacting agriculture, insurance, and public services. Increased flooding can lead to significant property damage, disrupt habitats and lead to water quality issues, while prolonged droughts can reduce the availability of water for drinking, irrigation, and industrial use, threatening food security and livelihoods and reduce resilience in natural systems.
To mitigate these impacts, there is an urgent need for adaptive strategies, including both landscape-scale changes to agronomic practices and nature-based solutions and improved infrastructure planning, to enhance resilience against future climate extremes. To enhance water resource management and reduce risks, our research into nature-based solutions (NbS) is focussing on leveraging natural processes and ecosystems, offering multiple benefits, such as improved water quality, enhanced biodiversity, and increased carbon sequestration. For example, our large five-year strategic research project for the Scottish Government, Achieving Multi-purpose Nature-Based solutions assesses and enhances water-related ecosystem services of Nature-Based Solutions in catchments. We explore how NBS can work across multiple sectors and scales to achieve transformative change. By integrating NbS into water management practices, we can not only tackle immediate hydrological challenges but also contribute to broader efforts to combat climate change and biodiversity loss, fostering sustainable and resilient communities.
We are also actively working in UK and international projects looking at the design, placement and effectiveness of measures for mitigating floods and droughts (https://slowaters.eu/). The Hutton also hosts the Natural Flood Management Scotland Network. Equally, we are looking at how NbS measures could be used to mitigate low flows. Here we are working with sectors such as distilling to look at appropriate measures in catchments. Our social scientists have been looking at ways to upscale measures looking at different barriers to delivery. Also, we investigate the effect of flooding on communities.
To inform drought risk management, Hutton scientists are developing a low-flow forecasting framework for 82 priority catchments in Scotland and evaluating future adaptation options for different economic sectors, including agriculture and distilleries.
Related media
Podcast – Flooding: a costly catchment-scale challenge, but one we can prepare for
Flooding is an issue that’s increasingly high on the agenda. What’s behind these events, what exacerbates them, why are the obvious solutions maybe not so easy to implement and what can we do to be more prepared for the next one? We take a dip into these stormy waters with scientists from across our environmental and social sciences teams.
Contact for more information
Miriam Glendell
Senior Research Scientist Catchment Modelling
Based in Aberdeen
T: +44 (0)344 928 5428 (*)
A catchment scientist and systems modeller with an interest in the understanding of the effects of land use, land management change and mitigation on ecosystem services, including water quality, freshwater biodiversity, soil conservation and carbon management in catchment systems. My trans-disciplinary research combines aspects of hydrology, soil science, freshwater biology, biogeochemistry and social sciences within integrated modelling frameworks to address key questions linking land use impacts on freshwaters.