Dr Charles Rougé

MSc, PhD

Department of Civil and Structural Engineering

Lecturer in Water Resilience

CIV Charles Rouge
c.rouge@sheffield.ac.uk
+44 114 222 5723

Full contact details

Dr Charles Rougé
Department of Civil and Structural Engineering
Room C109B
Sir Frederick Mappin Building (Broad Lane Building)
Mappin Street
Sheffield
S1 3JD
Profile

Evermore sophisticated and complex models guide how our water infrastructure adapts to climate change. How can we be sure they are the best possible guides?

Dr Charles Rougé


Dr. Charles Rougé completed an engineering degree at France's Ecole Polytechnique near Paris, then his MSc in Civil Engineering at the University of Illinois at Urbana-Champaign (USA) in 2010.

He studied his PhD at Université Blaise Pascal (Clermont-Ferrand, France), then moved into postdoctoral research positions at top institutions in Canada, the UK and the USA, working on diverse water projects ranging from resilience and vulnerability assessments in the Middle-East and the American West, to an appraisal of smart water metering in London.

Charles's research interests revolve around the modelling and analysis of complex water resource systems, to understand how they can be made resilient to change and hazards, and adapt to them.

This need to make our water systems more resilient often comes at the expense of increasing vulnerabilities elsewhere.


Research Themes

Digital

Energy

Hazards

Infrastructure

Materials

Research interests

The objective of Charles’s research is help both public and private actors in our water systems make wise decisions when adapting to a changing world.

His numerical modelling and analysis of systems allows for longer-term forecasting and a broader vision of where these systems might fail and how we can work to prevent this.

For this, natural systems must be factored alongside essential components of human systems (e.g. infrastructure, institutions, socio-economic aspects, etc.), with several complex models often brought together.

Furthermore, these models have often been calibrated one by one to replicate historical behaviours. How can we make sure they can be used together to assess risks in the context of climate change?

To address this, Charles relies on his expertise crossing disciplinary boundaries, bridging water engineering and hydrology with high-scale computing, economics, decision theory, ecology and statistics.

He believes that transdisciplinary research and collaboration will be the key to solving the most pressing water challenges our societies face.

Publications

Journal articles

Research group

Catchments and River Engineering

Professional activities
  • 2019 Quentin Martin Best Practice Oriented Paper Award from the Journal of Water Resources Planning and Management (paper here ).
  • 2015 Editor's Citation for Excellence in Refereeing from Water Resources Research
  • Associate Editor, ICE’s Water Management journal
  • Reviewer for top-tier journal over the last five years, including Scientific Reports, Water Resources Research, Environmental Modelling and Software, Advances in Water Resources and several others.
  • Co-chaired sessions at workshops and international conferences (AGU, EGU, iEMSs).
Potential PhD offerings

Forecast Assimilation For Resilient Water Resource Planning And Operations

This is an ideal project for a resourceful and driven individual. The successful candidate will develop and perfect first-rate analytical, computational and communication skills that will enable them to choose their subsequent career path, whether in academia or industry.


Socio-hydrology For Engineering Water Adaptation In A Changing World

This project aims at addressing the challenges in translating theoretical insights from socio-hydrology into engineering practice: how can they help us design more resilient and sustainable water systems?


Flood And Drought Assessment In A Human-dominated Water Cycle

This project will use and link together existing models to propose a diagnostic framework for the coupling of a weather generator with a coupled human and natural hydrological model, that integrates both natural processes and water management aspects (water use, storage, transfers, etc.).


Benefits Of Cooperation In Transboundary River Basins

This project will look at developing methods to evaluate the benefits of cooperation for the use of water resources in transboundary river basins, i.e., basins where water is shared between several countries.