This multidisciplinary and cutting-edge PhD project will bring together the fields of microfluidic engineering, materials chemistry and lab automation, to discover and apply new colloidal nanoparticle formulations for energy applications (e.g. solar cells, battery technologies). We seek candidates who are inspired by interdisciplinary research, and are ambitious to make a positive societal impact.
In this project, you will develop expertise and experience in:
- Developing automated microfluidic reactor systems
- Identifying and adapting colloidal nanoparticle synthesis routes for flow chemistry
- Fabricating systems and devices to test nanoparticles in energy applications
- Performing high quality research and publishing in academic journals
- Presenting results at internal and external meetings (e.g. international conferences)
The discoveries and decisions made this decade will define the future of humanity in the face of our greatest challenge to date: mitigating climate change whilst improving quality of life for all. Underpinning this will be a revolution in energy management, as we redefine our relationship with the natural environment. Solar energy, as a natural resource of immense power and potential, is going to be pivotal in this revolution, and advances in our ability harness it will have a great impact. Various classes of nanoparticles hold tremendous promise for application in solar energy capture, conversion and storage. This is because nano-sized materials can exhibit unique and powerful characteristics that are distinct from the bulk material, and can be applied high-performance devices. Examples include inorganic semiconductor nanoparticles (quantum dots) in solar cells, and nanostructured spinels and olivines in batteries. Accordingly, this PhD project will help to expedite the development and commercialization of nanoparticle-based technologies, in support of solving humanity’s energy management challenge.
This fully-funded 3.5-year studentship is open for UK and overseas applicants.
Requirements: There are no rigid criteria for the applicants’ academic background, beyond having a degree in a science or engineering subject. Most important is that you have an inquisitive nature, enthusiasm for learning, and a proactive attitude to developing new practical skills. Below is a list of skills given as a guide for the candidate profile:
- Proven science and/or engineering laboratory skills and experience
- Programming for data analysis and/or automation (e.g. with MATLAB, Python)
- Basic understanding of photoluminescence and/or electrochemistry
- Excellent attention to detail in practical and written work
- Ability to communicate effectively across disciplinary boundaries
Informal enquiries are welcome and should be sent to Dr Philip Howes ([Email Address Removed]). Interested candidates should send a CV and cover letter to the same email address. The cover letter (max 2 pages) should describe the following: 1) your relevant expertise and experience, 2) your inspiration to undertake a PhD, 3) your attitude to interdisciplinary working with examples of experience and/or future ambitions. The project will provisionally start in September 2021.
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