About the Project
This project aims to pursue the next frontier in soil microbiome research by combining microfluidics, microscopy and next generation sequencing to untangle microbial interaction and communication in the rhizosphere. The overall objective is to engineer microenvironments – using Spores-on-a-Chip microfluidic technology – to recapitulate organismal interaction and communication and investigate microbial activation by environmental cues.
Currently, very little is known about the molecular and cellular biology underpinning bacterial spore germination, especially in non-model organisms, and there exists no way in which to systematically investigate the complex environmental cues (and therefore underlying mechanisms) that promote (or hinder) microbial activation of spores in real soil communities. This highly novel and interdisciplinary research project aims to enhance our understanding of these important processes and is expected to have a significant impact on the agricultural industry, as well as the health and the food industries.
Successful completion of the PhD will equip candidates with the skills required for in-demand careers within academia or industry including: cell culture techniques, soil-on-a-chip technology development, cleanroom microfabrication, microscopy, computer-assisted design, statistical analysis, problem solving, experimental design, scientific writing/presentation skills and project management.
The project will be supervised by Dr Claire Stanley and will involve close collaboration with the lab of Prof. Pilar Junier (University of Neuchâtel, Switzerland). To find out more about the lab and our research interests please visit us at www.claire-stanley.com
To apply, please submit a one-page personal statement detailing your academic background and research interests, a CV and contact information of two professional/academic references to Dr Claire Stanley via email ([Email Address Removed]). Applications will be considered on a rolling basis until the position is filled. Flexible start dates in 2020 are possible.
The ideal candidate should have an excellent academic track record and have obtained an undergraduate degree at 2:1 level or higher and, normally, a master’s degree with merit or higher (or non-UK equivalents) in engineering, physical sciences, biological sciences, natural sciences or another relevant field. Laboratory experience is essential and proficiency in microfluidics, microbiology or live cell microscopy are desired but not required. Eligible candidates should be self-motivated, proactive, have excellent oral/written communication abilities and be able to work well within a team.
More information about Bioengineering at Imperial College London and our PhD programme: https://www.imperial.ac.uk/bioengineering/ and about Imperial’s commitment to the success of EU students enrolled in 2019/2020: https://www.imperial.ac.uk/about/imperial-and-the-european-union/support-for-students/
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