carbon capture and storage

Recently published research suggests that carbon dioxide stored underground will stay there for millions of years.

The authors of this paper show the migration of a CO2 plume within a depleted carbonate reservoir and the expected effects of CO2 saturation and pressure buildups during injection on time lapse 4D seismic for conformance monitoring.

Spending on low-carbon projects will increase by $60 billion this year, 10% higher than 2022, led by wind developments but helped by a significant rise in funding for hydrogen and carbon capture, utilization and storage infrastructure, Rystad Energy research shows.

A company plans to use compressed air to store energy underground in California. The US Postal Service makes a historic announcement. India and Brazil set their sights on green hydrogen, and ammonia cracking takes center stage in Germany.

A big jump in the tax incentives offered for putting CO2 in the ground, hopefully forever, has set off a mad rush to sequester CO2. But is that really the best option?

A critical challenge for those designing carbon dioxide storage sites is predicting where the injected gas will go. One of the only sure bets is to assume that any model of a gas plume that looks symmetrical is likely wrong.

ADNOC lays out a $15-billion installment in its long-term plan to reduce its carbon footprint.

The authors of this paper describe a three-way coupled modeling approach that integrates dynamic, geochemistry, and geomechanics models to obtain cumulative effects of all three changes to evaluate future carbon dioxide storage.

The authors of this paper investigate the risk of containment loss for a leaking well using a 1-sq-mile section of the Denver-Julesburg Basin.

This study evaluates well integrity and CO2-leakage risk in wells penetrating a CO2 storage reservoir in Malaysia.