| Collaboration Opportunities for CO2 Storage and EOR in CanadaPresentationT02-P04 University of Alberta | Activity | 2018-09-20 | |
| Innovation Overview of Canadian CO2 Storage and EOR ActivitiesPresentationT02-P04 University of Alberta | Activity | 2018-09-20 | |
| Canadian Experience in CO2-EORWebinarT02-P04 University of Alberta | Activity | 2018-09-21 | |
| Anomalous Start-Up Pressure Signals of a Bubble-Tube System for Downhole Pressure Determination at the Aquistore CO2 Injection SiteT02-P04 University of Alberta | Publication | 2022-10-23 | |
| Investigating Potential (DeepSAFE) Deep borehole disposal solutions in Saskatchewan and Alberta for used ILW Fuel Emplacement from SMRs Invited speaker at the SRM summit 2025 as part of the Breakout Session: Building a robust nuclear ecosystem in Alberta - University of Alberta's key capacities for its sustainable development, present by UAlberta ResearcherT10-Q04 University of Alberta | Activity | 2025-03-04 | |
| SMR Summit 2024First oficial event post inauguration of this FES program. Very important networking and connections that leaded to successful expansion program of this research topic. T10-Q04 University of Alberta | Activity | 2025-04-03 | |
| SMR Forum 2024T10-Q04 University of Alberta | Activity | 2025-04-10 | |
| Numerical Validation of a Sequential Coupling between TOUGH3 and FLAC3D for Deep Borehole DisposalDeep borehole disposal is considered as a feasible disposal concept option for intermediate level-waste (ILW). Thermo-hydro-mechanical (THM) coupled processes govern geomechanical aspects for geological disposal. Therefore, understanding of these coupled processes is essential for accurately analyzing and predicting long-term performance of geological disposal systems. Numerical modeling can improve the understanding of such complex interaction among heat transfer, fluid flow, and mechanical responses in porous media. In addition, it can help define suitable conditions for geological disposal.
To conduct an adequate assessment of the performance and changes in the conditions of the disposal system after closure, as well as study the associated risks in the absence of engineered barriers, it is necessary to generate numerical model scenarios exploring the effectiveness of natural barriers at containing radionuclides (when all the engineered barriers have failed e.g., glass matrix, primary package, and overpack.)
However, to be able to carry out post-closure safety assessment based on numerical modeling it is necessary to implement a model that considers thermo-hydro-mechanical coupling. In this work a sequential coupling between TOUGH3 and FLAC3D is validated. T10-Q04 University of Alberta | Activity | 2025-03-04 | |
