3D Geological Modeling Service Soil Resistivity Tester

WTEM-3: Enabling the Subsurface Characterization Critical for Climate Mitigation and Adaptation

As global efforts intensify to mitigate climate change and adapt to its unavoidable impacts, the subsurface emerges as a critical frontier for both carbon management and climate resilience. The WTEM-3 System is uniquely positioned as an enabling technology for the climate economy, providing the essential subsurface characterization required for geological carbon sequestration, geothermal energy development, and climate-resilient infrastructure planning. Its ability to image deep reservoir architecture, monitor injected fluids, and assess ground stability under changing climate conditions makes it an indispensable tool for governments, energy companies, and engineering firms navigating the transition to a low-carbon, climate-adapted future.

Geological Carbon Sequestration Site Characterization and Leakage Monitoring addresses the most critical technical challenge for CCS (Carbon Capture and Storage) project approval and long-term stewardship. The WTEM-3's deep-penetrating, high-resolution imaging is ideally suited for characterizing the storage complex, including the reservoir geometry, caprock integrity, and the presence of any pre-existing fault or fracture networks that could compromise containment. Before injection begins, it establishes a high-resolution baseline 3D resistivity model of the storage formation. During injection, repeat surveys track the CO₂ plume as it migrates through the reservoir, leveraging the significant resistivity contrast between native brine and injected CO₂ to visualize its distribution and identify any unexpected migration pathways. This 4D monitoring capability provides the operational assurance required by regulators and the public that the stored carbon remains permanently contained, de-risking CCS investments and accelerating project approval.

Engineered Geothermal System (EGS) Resource Assessment and Stimulation Monitoring is essential for expanding baseload renewable energy beyond naturally occurring hydrothermal systems. The WTEM-3's ability to image deep fracture networks and fluid-filled porosity in crystalline basement rocks makes it the premier tool for EGS site selection and development. Pre-stimulation surveys map the natural fracture fabric and identify zones of higher permeability that represent optimal targets for reservoir creation. During hydraulic stimulation, the system can monitor the growth and geometry of the induced fracture network in near real-time, providing operators with critical feedback to optimize injection pressures and fluid volumes. Post-stimulation, it verifies the created reservoir volume and its connection to production wells, ensuring that the engineered system will deliver the sustained heat extraction rates required for commercial viability.

Climate-Resilient Infrastructure Siting and Design in Changing Ground Conditions addresses the challenge of building for an uncertain future. As permafrost thaws, coastlines erode, and precipitation patterns shift, infrastructure designed using historical conditions may fail prematurely. The WTEM-3 provides the capability to assess future ground conditions by integrating its subsurface models with climate projection data. For Arctic infrastructure, it can map the distribution of ice-rich permafrost and predict its thaw susceptibility under various warming scenarios, guiding route selection for pipelines and roads to avoid unstable ground. For coastal developments, it can image the depth and continuity of fresh groundwater lenses and assess their vulnerability to saltwater intrusion under projected sea-level rise. This future-focused site characterization enables engineers to design infrastructure that remains safe and functional for its intended design life, even as the ground beneath it changes in response to a warming climate.

Climate Adaptation & Carbon Management Specifications