Development of the solid sorbent technology for post combustion CO2 capture towards commercial prototype

A critical review of technologies, costs, and projects for production of carbon-neutral liquid e-fuels from hydrogen and captured CO2

“…Shell plans to scale solid adsorbent technology from current 1 tpd to 150 tpd by 2024 with an eventual target of 1000-2000 tpd commercial plants. 73 Shell's solid adsorbent technology can separate over 90% of the CO 2 from post-combustion flue gases with 95% purity, and it is reported to be 40% cheaper than liquid amine technology.…”

Study on the CO2 Capture Separation Process by Temperature Swing Adsorption Based on Nitrogen-Doped Porous Carbon

“…Pre-combustion, post-combustion, and oxygen-rich combustion technologies are the primary types of carbon dioxide capture systems . The advantages of post-combustion capture technology are simple process, mature technology, and minor impact of the capture system on the embedded subject, which has more tremendous development potential and is considered to be an appropriate technology to reduce CO 2 emissions from power plants and industrial sources. , Post-combustion capture technology can be realized by chemical absorption, physical adsorption, low-temperature separation, membrane separation, etc . The chemical solvents used in the chemical absorption method are often corrosive and have a high cycle loss rate, leading to high capture costs .…”

Amine Adsorbents Stability for Post‐Combustion CO2 Capture: Determination and Validation of Laboratory Degradation Rates in a Multi‐staged Fluidized Bed Pilot Plant

“…In the recent years many contributions have been made in adsorbent development [3–8] or process line‐ups for adsorbent technologies [9–12] . Since 2010 Shell, together with partners, is developing a temperature swing adsorption fluidized bed process aimed to capture CO 2 with >90 % capture efficiency from flue gases [13–15] . While the concept puts more constraints on sorbent selection compared to other line‐ups (fixed or moving bed), it allows for better isothermal operation, heat integration, less pressure drop throughout the process and a smaller footprint which are important at commercial scale.…”

“…Since 2019, scale‐up of this technology was realized together with partners (named the ViennaGreenCO2 consortium) by operation of a pilot plant in Austria. The plant was designed to capture 1 ton of CO 2 per day [14] . The pilot plant was moved to the Netherlands and continued operation in 2021 in Moerdijk, capturing CO 2 from a poultry litter combustion flue gas.…”