About the Project
A PhD project at the EPSRC Centre for Doctoral Training in Water Infrastructure and Resilience (WIRe)
The project will investigate whether ozone and granular activated carbon are still suitable processes to tackle current and emerging contaminants and provide drinking water resilience. The studentship includes an enhanced stipend of £19,000 per annum. The successful candidate will be in regular contact with Anglian Water’s and Thames Water’s innovation teams and will be part of the Drinking Water group at Cranfield’s Water Science Institute. Students will benefit from being part of the EPSRC Centre for Doctoral Training in Water Infrastructure and Resilience (WIRe), a world leading collaboration between three universities (www.cdtwire.com). The WIRe programme includes a bespoke training programme in technical and personal skills development and provides opportunities for overseas travel and access to world leading experimental facilities.
It is important that we have robust and resilient processes to remove micropollutants from drinking water to ensure that consumers are continually provided with safe and wholesome water. However, the infrastructure used to treat drinking water is ageing, water quality regulations are getting tighter, populations are growing, and climate change may influence our water resources. In the case of micropollutants, we have relied on ozone and adsorption processes such as granular activated carbon (GAC) to remove a range of water contaminants. However, these processes are often more than 20 years old and are reaching the end of their design lifespan. Urgent research is therefore needed to understand how these processes can be future-proofed to meet future challenges.
- What is the potential to adapt existing ozone and adsorption infrastructure in drinking water plants to remove micropollutants and pathogens and make them more resilient to future treatment challenges?
- What are the alternative treatment processes and how does the flowsheet that best delivers effective water quality look like?
The project is an exciting collaboration between Cranfield University, Thames Water and Anglian Water as part of the EPSRC Centre for Doctoral Training in Water Infrastructure and Resilience (WIRe).
Key scientific discoveries are anticipated in relation to our understanding of oxidation and adsorption systems for micropollutant removal and how these can be translated into real operational systems. Through an optioneering process and experimental investigations at laboratory and pilot scale you will identify the opportunities (and limitations) of implementing these processes into water treatment systems.
As part of the WIRe doctoral centre, students will benefit from an enhanced stipend of £19,000 per annum, undertake a bespoke training programme within a cohort of up to 12 students and have access to world leading experimental facilities and observatories, as well as close collaboration with industry and end-user partners.
At the end of the project, you will be very well positioned to have a highly successful career in the water sector or in an academic role. We will help you develop into a dynamic, confident and highly competent researcher with wider transferable skills (communication, project management and leadership) that will be highly desirable for future employability.
Applicants should have a first or upper second class honours degree or equivalent in a related discipline, such as engineering, chemistry or environmental science. The ideal candidate should have some understanding of water treatment. The candidate should be self-motivated, have good communication skills for regular interaction with other stakeholders, with an interest for industrial research.
How to apply
At Cranfield, we value Diversity and Inclusion. Please visit our website for additional information https://www.cranfield.ac.uk/about/working-at-cranfield/diversity
Based on your current searches we recommend the following search filters.
Based on your current search criteria we thought you might be interested in these.