Gas Capture Processes

doi:10.3390/books978-3-03928-781-9

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Hardback

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Keywords

in situ gasification chemical looping combustion; high-flux circulating fluidized bed; counter-flow moving bed; gas leakage; coupling mechanism; carbon capture and utilization; biogas upgrading; calcium carbonate precipitation; chemical absorption; gas pressure; gas content; gas basic parameters; rapid estimation technology; supercritical water oxidation; high-pressure separation; oxygen recovery; energy recovery; economic analysis; coal-direct chemical looping combustion; coupling mechanism; theoretical methodology; high-flux; gas leakage; pressure gradient; gas mole fraction; activity; UNIFAC; phase equilibrium; threshold value; CO₂ capture; calcium looping; chemical sorption; anti-attrition; pore-former particle size; Reaction; kinetics; carbon dioxide; N-methyldiethanolamine; L-Arginine; stopped flow technique; carbon capture; CO₂ sequestration; steel-making waste; steel slag; H₂S absorption; amine solutions; glycols; desulfurization; aqueous and non-aqueous solutions; gas diffusion; gas pressure; unipore diffusion model; bidisperse diffusion model; dispersive diffusion model; refinery plants; industrial gas streams; petrochemical processes; waste gases; activated carbons; catalytic activation; physicochemical structure; SO₂ adsorption; optimal conceptual design; market prediction; economic uncertainty; environmental impact; carbon dioxide separation; CO₂ capture; Aspen Plus; CCGT; Taguchi; Minitab; optimization; 2-Amino-2-Methyl-1-Propanol; modelling and Simulation; post-combustion capture; exergy analysis; flowsheeting configurations; nanofluids; absorption intensification; mass transfer coefficient; bubble column; global warming; chemical absorption; membrane contactor; removal of NO₂ and CO₂; coke oven; carbonaceous deposits; spectral analysis; mechanism; arsenene; doping; first principles study; gas adsorption; two-dimensional; waste polyurethane foam; physical activation; high selectivity; CO₂ capture; ultra-micropore; activated carbons; physical activation; mechanical activation; physicochemical structure; SO₂ adsorption; CO₂ capture; iron ore; carbonation; calcination; recyclability; mechanochemical reactions; carbonation kinetics; MXene; gas separation; Knudsen diffusion; molecular sieving; transport mechanism; spiral nozzle; gas absorption; spray atomization; droplet size; droplet velocity; global warming; gas emission; capture; CO₂

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Gas Capture Processes

Edited by

July 2020

440 pages

ISBN 978-3-03928-780-2 (Hardback)
ISBN 978-3-03928-781-9 (PDF)

https://doi.org/10.3390/books978-3-03928-781-9

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This is a Reprint of the Special Issue Gas Capture Processes that was published in

Biology & Life Sciences

Chemistry & Materials Science

Computer Science & Mathematics

Engineering

Environmental & Earth Sciences

Summary

This book introduces the recent technologies introduced for gases capture including CO2, CO, SO2, H2S, NOx, and H2. Various processes and theories for gas capture and removal are presented. The book provides a useful source of information for engineers and specialists, as well as for undergraduate and postgraduate students in the fields of environmental and chemical science and engineering.