Transitioning towards renewable energy requires innovative energy storage solutions that are crucial in optimizing energy use. Mine Thermal Energy Storage (MTES) is a technology that utilizes abandoned or repurposed mines for storing excess energy (heat and cold). This session aims to bring together researchers, industry experts, and policymakers to discuss recent advances, challenges, and opportunities in the field of MTES.
We invite contributions that explore various aspects of MTES, including, but not limited to:
- Case studies and pilot projects demonstrating the challenges, feasibility, and economic viability.
- Hydrogeological, geochemical, microbiological, geotechnical, and thermal dynamics of mines for energy storage applications.
- Integration with renewable energy sources such as solar, wind, geothermal energy, surplus industry heat, heat networks, etc.
- Innovative designs and technological developments in MTES systems.
- Impact on groundwater systems and thermal dynamics, including potential for thermal pollution or water contamination.
- Mine water usage and mine water geothermal energy (MWGE)
- Environmental and socio-economic impacts of MTES implementation in mining regions.
- Policy frameworks, regulatory considerations, and pathways to market.
The session will provide a platform for interdisciplinary discussions that bridge geoscience, engineering, environmental studies, and energy policy. By looking at both theoretical and practical perspectives, we aim to push the boundaries of MTES research and contribute to the global agenda for sustainable energy solutions.
We invite contributions that explore various aspects of MTES, including, but not limited to:
- Case studies and pilot projects demonstrating the challenges, feasibility, and economic viability.
- Hydrogeological, geochemical, microbiological, geotechnical, and thermal dynamics of mines for energy storage applications.
- Integration with renewable energy sources such as solar, wind, geothermal energy, surplus industry heat, heat networks, etc.
- Innovative designs and technological developments in MTES systems.
- Impact on groundwater systems and thermal dynamics, including potential for thermal pollution or water contamination.
- Mine water usage and mine water geothermal energy (MWGE)
- Environmental and socio-economic impacts of MTES implementation in mining regions.
- Policy frameworks, regulatory considerations, and pathways to market.
The session will provide a platform for interdisciplinary discussions that bridge geoscience, engineering, environmental studies, and energy policy. By looking at both theoretical and practical perspectives, we aim to push the boundaries of MTES research and contribute to the global agenda for sustainable energy solutions.