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Characterizing the catalyst fluidization with field synergy to improve the amine absorption for CO2 capture 被引量:1

Characterizing the catalyst fluidization with field synergy to improve the amine absorption for CO2 capture
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摘要 There are great interests to capture the CO2 to control the greenhouse gas emission.Amine absorption of CO2 is being taken as an effective way to capture CO2 in industry.However,the amine absorption of CO2 is cost-ineffective due to great energy consumption and solution consumption.In order to reduce the capture cost,catalyst fluidization is proposed here to intensify the mass transfer and heat transfer.Catalyst fluidization with field synergy and DFT model is developed by incorporating the effects of catalyst reaction kinetics,drag force and multi-field into the mass transfer,heat transfer,fluid flow and catalyst collision.Experiments with an improved distributor are performed well to validate the model.The reaction kinetics is determined by the DFT simulation and experiment.The mass transfer coefficient in the fluidized reactor is identified as 17%higher than the conventional packed reactor.With the field synergy of catalyst fluidization,the energy consumption for CO2 desorption is reduced by 9%.Stepwise operation and inclination reactor are used to improve catalyst fluidization process. There are great interests to capture the CO2 to control the greenhouse gas emission. Amine absorption of CO2 is being taken as an effective way to capture CO2 in industry. However, the amine absorption of CO2 is cost-ineffective due to great energy consumption and solution consumption. In order to reduce the capture cost, catalyst fluidization is proposed here to intensify the mass transfer and heat transfer. Catalyst fluidization with field synergy and DFT model is developed by incorporating the effects of catalyst reaction kinetics, drag force and multi-field into the mass transfer, heat transfer, fluid flow and catalyst collision. Experiments with an improved distributor are performed well to validate the model. The reaction kinetics is determined by the DFT simulation and experiment. The mass transfer coefficient in the fluidized reactor is identified as 17% higher than the conventional packed reactor. With the field synergy of catalyst fluidization, the energy consumption for CO2 desorption is reduced by 9%. Stepwise operation and inclination reactor are used to improve catalyst fluidization process.
出处 《Chinese Journal of Chemical Engineering》 SCIE EI CAS CSCD 2019年第7期1608-1617,共10页 中国化学工程学报(英文版)
基金 Supported by the National Natural Science Foundation of China(51506165 and21736008) the Natural Science Basic Research Plan in Shaanxi Province of China(2015JQ5192) Fundamental Research Funds for the Central Universities
关键词 CO2 CAPTURE CATALYST FLUIDIZATION Mass transfer DFT Energy CONSUMPTION Field SYNERGY CO2 capture Catalyst fluidization Mass transfer DFT Energy consumption Field synergy
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