Seismic solutions for CCUS exploration and monitoring

Houston, Texas. 3rd-5th March 2025.

CCUS exploration and monitoring

Better data. Better decisions.

Carbon removal is a multi-billion-dollar industry—and when executed effectively, it has the potential to reverse global warming by securely sequestering CO₂.

High-resolution seismic imaging plays a critical role in assessing subsurface suitability for safe and long-term carbon storage, ensuring both efficiency and reliability.

At STRYDE, we empower companies with cutting-edge seismic technology and solutions, enabling them to acquire high-quality data faster, more cost-effectively, and with minimal environmental impact.

If you are attending the upcoming AAPG CCUS conference in Houston, Texas from the 3rd-5th of March, stop by booth 1007 to learn more about our solutions!

Case studies

Quebec-based project developer Deep Sky is leading the way in CO₂ sequestration with a ground-breaking CO₂ removal project in Bécancour.

Watch this video to see how our seismic technology is playing a role in the largest geological study in Eastern Canada.

3D seismic survey conducted by S³ for CarbonCuts project in Denmark

Smart Seismic Solutions (S³) deployed a high-density 3D seismic survey using more than 40,000 STRYDE nodes over a 220 km² area for the ground-breaking CarbonCuts CO₂ Storage Project onshore in Denmark, enabling a significant step forward in global efforts to combat climate change.

The dense deployment of STRYDE nodes provides exceptional clarity of the subsurface, enabling stakeholders to identify geological structures suitable for carbon storage with greater precision.

This significantly reduces risks and enhances the reliability of long-term CO₂ sequestration solutions.

3D seismic survey conducted by S³ for CarbonCuts project in Denmark

Demonstrating novel monitoring techniques at an ethanol CCS project in North Dakota

CCS project operators must demonstrate safe CO₂ storage while ensuring compliance with regulatory requirements and incentive programs. This demands robust, risk-based, and sustainable monitoring plans.

To support these goals, 750 STRYDE nodes were deployed in various high-density array configurations, enabling detailed noise characterization and baseline monitoring. This paper presents an overview and initial results of the novel and sustainable monitoring techniques developed by the EERC and its commercial partners associated with the Red Trail Energy CCS project.

Read the paper