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Photo of Prof Raziyeh Farmani

Prof Raziyeh Farmani

Associate Professor


Telephone: 01392 723630

Extension: (Streatham) 3630

Professor Farmani is an Associate Professor of Water Engineering and industrial Fellow of Royal Academy of Engineering at Centre for Water Systems, University of Exeter. She is the Chair of IWA's Intermittent Water Supply Specialist Group.

She specialises in urban water systems modelling, water resources management and asset management and has expertise in multi-objective optimisation of water networks.

Her research interests covers evolutionary optimisation, artificial intelligence and data mining and their applications in real-time control of water systems, asset management of water distribution systems including leakage analysis, pressure and energy management, reliability and resilience, asset failure and deterioration modelling.

Ongoing PhD Research Supervision

- Sustainable Conversion of Intermittent Water Supply Systems to Continuous Water Supply, Zambia

- Pressure Driven Modelling of Intermittent Water Supply Systems, Zimbabwe

- Improving Equity in Intermittent Water Supply Systems

- Management of Decentralised Water Resources in Water Scarce regions, India

- Organisationl Resilience in the Water Sector

- Data Analytics for Smart Water Systems Operation and Management

I am happy to take PhD students working on any projects related to my currently active research. Also I would be happy to supervise PhD students interested in AI and Big Data in urban water systems, water resources management, water in developing countries and water-energy-food nexus. Please feel free to contact me by email (

  Research Projects

Royal Academy of Engineering Industrial Fellow (2019-2022), Digital Solutions for Resilient Urban Water Systems

Development of a novel standalone solar-driven agriculture greenhouse desalination that grows its energy and irrigation water, British Council (2018-2020)

Application of innovative statistical models to automate process control tools that manage water pipeline infrastructure, KTP (2018-2021), Artesia

Geores, Marie Curie RISE grant, H2020, EC (2018-2022)

TWENTY 65: Tailored Water Solutions for Positive Impact (EPSRC 2015-2021)

Westcountry Women Working With Water (5W), Royal Academy of Engineering (2018-2019)

Distinguished Visiting Fellow, Royal Academy of Engineering, (2017), Prof Maria Cunha

Improved Water and Energy Efficiency for Chilean Mining Industry through Optimum scheduling for integrated water supply-demand side management (2016)

Local Nexus Network: Building sustainable local nexuses of food, energy and water: from smart engineering to shared prosperity (EPSRC 2015-2017) -  It is a collaboration with main focus on localised food manufacturing and decentralised energy and water supply that interact with the food system.  

Safe & SuRe: Towards a new paradigm for urban water management - (EPSRC 2013-2018) develops and promotes new thinking and new approaches to water management in cities to meet global challenges.

iWIDGET: Improved Water efficiency through ICT technologies for integrated supply-Demand side manaGEmenT - (FP7, 2012-2015)

UK/US collaboration - Clean Water for All (EPSRC 2013-2014) - An exchange programme between University of Exeter, University of Arizona, University of Utah and University of Toledo (EPSRC and NSF funded).

UK/China collaboration (Royal Society, 2013-2015)- Optimizing strategies and technologies for nonpoint source pollution control - An exchange programme between University of Exeter and Fudan University. (The Royal Society and International Exchanges NSFC funded)

She has recently led research in two EPSRC Sustainable Urban Environment consortia. Regional Visions of Integrated Sustainable Infrastructure Optimised for Neighbourhoods: ReVISIONs explores the inter-relationships between water, energy, transport and waste infrastructure policies and development plans and Sustainable Regeneration: From evidence based urban futures to implementation (Urban Futures) establishes and assesses the viability and resilience of alternative water infrastructure solutions for different futures in terms of design, operation and implementation.

New approaches to adaptive water management under uncertainty (NeWater).  Her research focus was on environmental system dynamics, adaptive management with emphasis on developing methods in participatory integrated assessment (using Evolutionary Bayesian belief networks) for guiding step by step adaptive decision making process under uncertainty. The developed methodologies were applied to water demand management in UK, ground water contamination in Denmark, management of over-abstracted aquifers in Spain and flood plain management in Tisza river basin.