This session focuses on the use of geophysical techniques (seismology, geodesy, geoelectric, electromagnetic, gravity, etc.) for imaging and monitoring geothermal resources of any type, such as high- and low- temperature hydrothermal systems, hot dry rocks, super-critical fluids, and magmatic systems. We also welcome studies that analyse the impacts of geothermal energy production (e.g. changes in stress, strain, permeability, and induced seismicity), monitoring the evolution of the reservoirs (e.g. pressure, heat, steam fraction, chemical signature, groundwater, and crust), and how the geothermal systems respond to external environmental perturbations (air temperature, barometric pressure, rainfall, and snowfall) as well as extreme natural events (earthquakes, drought, flood, etc).
This session focuses on the use of geophysical techniques (seismology, geodesy, geoelectric, electromagnetic, gravity, etc.) for imaging and monitoring geothermal resources of any type, such as high- and low- temperature hydrothermal systems, hot dry rocks, super-critical fluids, and magmatic systems. We also welcome studies that analyse the impacts of geothermal energy production (e.g. changes in stress, strain, permeability, and induced seismicity), monitoring the evolution of the reservoirs (e.g. pressure, heat, steam fraction, chemical signature, groundwater, and crust), and how the geothermal systems respond to external environmental perturbations (air temperature, barometric pressure, rainfall, and snowfall) as well as extreme natural events (earthquakes, drought, flood, etc).