利用毫米级卷流逆变器阐明流动定向吸收 98% 的二氧化碳:纳米纤维素辅助的可持续范围

IF 3.8 3区 工程技术 Q3 ENERGY & FUELS Chemical Engineering and Processing - Process Intensification Pub Date : 2024-10-10 DOI:10.1016/j.cep.2024.110022
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摘要

联合国通过的可持续发展目标(SDGs)推动全球努力探索一种可持续的碳捕集方法,以减少人为二氧化碳排放。浓缩的烷醇胺溶液作为二氧化碳捕集介质被用于批处理过程,但存在一些缺点,如能耗高、效率低。在这项工作中,我们探索了毫米级盘流逆变器(CFI),将其作为点源二氧化碳捕集工具,用于高效、连续的操作。研究发现,溶剂和二氧化碳气体流速决定了蛞蝓的流动机制,更具体地说,决定了蛞蝓的长度。高界面面积和停留时间仍然是利用 CFI 增强二氧化碳捕获的驱动因素。3% 的二乙醇胺水溶液在 CFI 中的二氧化碳吸收效率约为 98%。纳米纤维素是一种可持续发展的纳米材料,它在低流量二氧化碳捕集方面的功效已得到证实。
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Elucidating flow-directed 98% CO2 absorption using millimeter-sized coiled flow inverters: Nanocellulose-aided sustainable scope
The Sustainable Development Goals (SDGs) adopted by the United Nations drive the global efforts to discover a sustainable carbon capture method for the reduction of anthropogenic CO2 emissions. Concentrated alkanolamine solutions are being used as CO2 capture mediums for batch processes amid several disadvantages, such as energy intensiveness and poor efficiency. In this work, millimeter-sized coiled flow inverters (CFI) have been explored as a point-source CO2 capture tool for highly efficient, continuous operations. Solvent and CO2 gas flow rates are found to dictate the slug flow regime and, more specfically, slug lengths. High interfacial area and residence time remain the driving factors for enhanced CO2 capture using CFI. About 98% CO2 absorption efficiency has been achieved for 3% aqueous diethanolamine solution in CFI . The efficacy of nanocellulose, a sustainable nanomaterial has been unearthed for CO2 capture at low flow rate.
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来源期刊
CiteScore
7.80
自引率
9.30%
发文量
408
审稿时长
49 days
期刊介绍: Chemical Engineering and Processing: Process Intensification is intended for practicing researchers in industry and academia, working in the field of Process Engineering and related to the subject of Process Intensification.Articles published in the Journal demonstrate how novel discoveries, developments and theories in the field of Process Engineering and in particular Process Intensification may be used for analysis and design of innovative equipment and processing methods with substantially improved sustainability, efficiency and environmental performance.
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