Carbon capture and storage
This SPE technical section editorial synthesizes six technical themes shaping CO2 transport and storage and interprets them through a petroleum engineering capability lens.
The Pawnee Carbon Sequestration Project, which would use a repurposed well, is planned to capture and store up to 400,000 tonnes of carbon dioxide, with first injection targeted for early 2027.
This paper details the importance and value derived from a real-time process-twin model for one of the world’s largest operating carbon dioxide sequestration projects.
-
This paper presents a flexible, highly cost- and energy-efficient method of gas separation and CO₂ capture from many different gas mixtures with a large range of CO₂ concentrations. -
This study explores the carbon-capture and mineralization potential of ultramafic rock powders when exposed to flue gases generated from combustion of crude oil and mesquite-derived charcoal.
-
This paper presents an approach for safe, efficient, and cost-effective legacy well reabandonment.
-
Plans call for the Greensand project to store 400,000 tonnes of carbon dioxide annually, with the potential to store up to 8 million tonnes annually at full capacity.
-
In line with its recently released Global Outlook, the major has begun storing carbon dioxide from Nucor’s iron facility in Convent, Louisiana.
-
In a 2-1 vote, The Texas Railroad Commission approved the Rose carbon capture and storage project in Southeast Texas, which is planned to store up to 5 million tonnes of carbon dioxide per year.
-
The Origins hub in Alberta, with plans to begin operations in January 2027, is expected to store up to 1.5 mtpa of carbon dioxide initially, with room to grow.
-
The Yara Sluiskil facility in the Netherlands expects to capture and liquefy 800,000 tons of carbon dioxide annually. The carbon dioxide is to be transported by Northern Lights vessels to Øygarden, Norway, where it will be stored.
-
This paper presents an experiment investigating dissolution of basaltic primary minerals and conditions favorable for secondary phase formation under deep subsurface storage conditions.
-
This study aims to investigate the efficacy of chemical additives strontium chloride and barium hydroxide in accelerating CO₂ trapping mechanisms, their effect on dissolution of carbonate-bearing minerals, and resulting poroelastic changes in the host rock.
Page 1 of 34