We are delighted to announce a series of PhD Scholarships for students with backgrounds in Applied Mathematics, Physics, Chemistry, Earth Sciences, Chemical Engineering or Engineering, interested in embarking on a PhD project related to energy, environment and fluid mechanics, in the Institute. Details of the research in the Institute may be found here and some of the
Carbon capture and storage must play a central part of the decarbonisation of the energy system, and researchers at the Institute has been working on carbon storage for over 15 years, exploring the control of CO2 in subsurface saline aquifers. A new research paper has just been published in the Journal of Fluid Mechanics, and illustrates
The ocean plays a central role in the global carbon cycle. Ocean water can absorb carbon dioxide from the atmosphere and sequester it at depth for hundreds or thousands of years. In fact, it is estimated that the deep ocean contains a massive reservoir of carbon, which dwarfs all other reservoirs combined (including vegetation, soil
To ensure that the carbon dioxide captured during industrial processes is safely stored underground, it is essential to have a detailed understanding of the different mechanisms by which CO2 is trapped in geological aquifers. PhD student Ross Shepherd has been studying the long-term, post-injection fate of carbon dioxide in deep aquifers. During today’s seminar,
During the second part of today’s seminar, PhD student Ruiyang Wang discussed the results of his recent laboratory experiments on the dissolution of capillary-trapped CO2 in the subsurface. As CO2 is captured and injected into an aquifer, some of it migrates towards topographic highs within the aquifer, while some is trapped in the pore spaces
One of the challenges with modelling subsurface flows is the uncertainty in measurements of geological properties, mostly due to limited resolution in observation methods. Typically, the observations of subsurface systems have a resolution of order 1 m, and this leaves a large amount of uncertainty in the small-scale variation in properties such as permeability. Many
Professor Joe Howe is the Net Zero Professor at the University of Lincoln and the academic lead for the Humber Industrial Cluster. The Humber Cluster spans both banks of the Humber Estuary, connected by the Humber Bridge and hosting the ports of Goole, Grimsby, Hull, Immingham and Killingholme. £18 bn of the UK’s economy is
Ten years ago, the Paris COP conference heralded an exceptional meeting to tackle climate change, backed by science, and soon embraced by industry. Much has been achieved, particularly in electrification through the explosive growth of renewables and EVs. However, the original optimism now risks stalling in much of the world as the reality of displacing
Carbon dioxide-induced corrosion of industrial equipment is very common, costly and particularly poses new challenges for Carbon Capture and Storage (CCS) systems. The role of impurities, such as SOx and NOx, which are also present in the stream, can also be important and has been discussed recently (cf. Corrosion Science, vol. 236, August 2024). A
Carbon storage in deep saline aquifers has become an important part of plans to decarbonise the energy system. Typically, aquifers are composed of a porous, permeable rock containing formation water. As CO2 is injected into an aquifer, some of it migrates towards topographic highs within the aquifer, while some is retained in the pore spaces