Mr Philip Salter

Research Assistant

Civil and Environmental Engineering

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Personal statement

I am a first year PhD student in the department of Civil and Environmental Engineering. My main area of research is the use of microbially and enzyme induced carbonate precipitation (MICP/EICP) for improving subsurface storage integrity. The pore systems of depleted underground gas reservoirs provide storage capacity that can be used for geo-sequestration of CO2, hydrogen storage and compressed air energy storage. MICP has potential as a sustainable and affordable solution to sealing leakage pathways and to compartmentalize existing subsurface storage space. 

Understanding the interactions between biogeochemical reactions and transport properties at the reservoir scale first requires MICP/EICP experiments to be carried out at the pore (micron) scale. These studies are essential for understanding principles of crystal formation, growth and hydrodynamic feedback mechanisms. Using X-ray computed tomography it is now possible to observe and quantitatively analyse these processes in 3D, at incredibly high spatial resolution, and in real-time.

As the UK moves to a carbon free economy, it is the overarching goal of my project to demonstrate the effectiveness of MICP to key players in academia and industry.

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Professional Activities

XCT Imaging and Analysis Training Course
Participant
4/4/2022

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Projects

Scottish Executive High Growth Spin Out - Ureaka
Minto, James (Principal Investigator) Salter, Philip (Research Co-investigator)
10-Jan-2025 - 31-Jan-2026
MG31709 - Diamond Synchrotron: 4D imaging of enzyme induced carbonate precipitation
Minto, James (Principal Investigator) Dobson, Kate (Co-investigator) Salter, Philip (Post Grad Student) Divers, Matt (Co-investigator)
The development of underground storage for CO2 and H2 is an essential part of the green energy transition provided we can prevent leakage into groundwater and the atmosphere. Enzyme induced carbonate precipitation (EICP) is a novel bio-cementation technique that can create the necessary impermeable barriers in porous host rocks where traditional cements and grouts cannot. At present however, limited understanding of the dynamics of EICP, calcite crystal growth, and how this is related to properties of the porous media is slowing development of EICP technologies for real-world deployment. This experiment will use synchrotron XCT to deliver much needed insight into these processes.
20-Jan-2024 - 24-Jan-2024

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Contact

Mr Philip Salter
Research Assistant
Civil and Environmental Engineering

Email: philip.salter@strath.ac.uk
Tel: Unlisted