Resilient catchments and hydrological extremes
Our research is improving scientific understanding about how water moves through the natural and built environment.
We use this knowledge to predict changes in hydrological extremes due to climate and land use change, and design effective solutions to mitigate risks to society from floods and droughts.
Our current key areas of research include:
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Hydroclimate extremes
Hydroclimatic extremes, such as very intense precipitation and drought, are expected to increase with global warming, with their cumulative effects potentially posing severe threats for human and natural systems. Researchers in the Department of Earth and Environmental Sciences are looking at how changes in the climate effect the water system and how water management can help alleviate extremes like floods and drought. Read more about our hydroclimate extremes research
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Hydrocitizenship
Understanding how communities live and engage with the environment is key to tackling natural hazards such as flooding and drought along with promoting sustainable management of water resources. Researchers in the School of Arts, Language and Culture have explore how the arts can be used to engage local communities and water sector professional to better understand water issues and enhance the potential for practical action.
Much of this work was carried out as part of the AHRC funded Towards hydrocitizenship project and you can watch a talk by Stephen Scott-Bottoms where he talks about his research.
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Natural flood management
Flooding is a natural process but it can have devastating consequences for people and property. With climate change science predicting an increase in occurrence and severity of high rainfall events, we need to change the way we think about managing flood risk. Researchers are developing methods for natural flood management through upland land management and quantifying its benefits. Much of this work was done as part of the NERC funded ProtectNFM which is part of the wider NERC Understanding the effectiveness of natural flood management programme.
Watch a talk by Professor Tim Allott discussing his work in this area.
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Sustainable urban drainage
68% of the world population are projected to live in urban areas by 2050 and, as a result, cities are coming under increased environmental stresses such as flooding. We are project partners of Grow Green which is an EU project to create climate and water resilient, healthy and liveable cities by investing in nature-based solutions.
How to manage water drainage is a key challenge for cities around the world. Researchers in the Department of Mechanical, Aerospace and Civil Engineering are exploring how blue-green infrastructure can be incorporated into urban planning to reduce flood risks and water pollution while providing amenity and biodiversity benefits to local populations
Our researchers
Jafar Al-Jawad
Research Associate
Research specialisms: Surface and groundwater numerical modelling, optimisation algorithm and technique, multi-scenario and decision making, water infrastructure design, sustainable management.
Giovanni Basolu
Full Stack Web Developer
Research specialisms: Software developing for water resource modelling.
Andrea Bottacin-Busopn
Senior Lecturer
Research specialisms: Water quality modelling and management, urban drainage, flood risk assessment, sediment processes, catchment management.
Stephen Boult
Senior Lecturer
Research specialisms: Water quality from catchment to tap, instrumentation, big data.
Greg Holland
Senior Lecturer
Research specialisms: Groundwater, subsurface fluid interactions.
Cathy Hollis
Professor
Research specialisms: Water-rock reactions and products in sedimentary basins, karstification in carbonate rocks, porosity and permeability of sedimentary rocks, basin-scale fluid flow.
Vahid Niasar
Academic (Teaching and Research) Reader
Research specialisms: Modelling, laboratories experiments, contaminant transport modelling, geochemistry modelling, CCS.
James Rothwell
Professor of Physical Geography
Research specialisms: Heavy metals, microplastics, sustainable urban drainage, green/blue infrastructure
Stephen Scott-Bottoms
Professor of Contemporary Theatre
Research specialisms: Community and stakeholder engagement (arts based), flood resilience, river stewardship, community engagement, storytelling, sited performance