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CeO-γ-AlO 催化剂对 BZA-AEP 混合吸收剂的催化 CO 解吸研究。

Catalytic-CO-Desorption Studies of BZA-AEP Mixed Absorbent by the Lewis Acid Catalyst CeO-γ-AlO.

机构信息

Faculty of Maritime and Transportation, Ningbo University, Ningbo 315832, China.

出版信息

Molecules. 2023 May 30;28(11):4438. doi: 10.3390/molecules28114438.

Abstract

Traditional organic amines exhibit inferior desorption performance and high regeneration energy consumption. The implementation of solid acid catalysts presents an efficacious approach to mitigate regeneration energy consumption. Thus, investigating high-performance solid acid catalysts holds paramount importance for the advancement and implementation of carbon capture technology. This study synthesized two Lewis acid catalysts via an ultrasonic-assisted precipitation method. A comparative analysis of the catalytic desorption properties was conducted, encompassing these two Lewis acid catalysts and three precursor catalysts. The results demonstrated that the CeO-γ-AlO catalyst demonstrated superior catalytic desorption performance. Within the desorption temperature range of 90 to 110 °C, the average desorption rate of BZA-AEP catalyzed by the CeO-γ-AlO catalyst was 87 to 354% greater compared to the desorption rate in the absence of the catalyst, and the desorption temperature can be reduced by approximately 10 °C. A comprehensive analysis of the catalytic desorption mechanism of the CeO-γ-AlO catalyst was conducted, and indicated that the synergistic effect of CeO-γ-AlO conferred a potent catalytic influence throughout the entire desorption process, spanning from the rich solution to the lean solution.

摘要

传统的有机胺表现出较差的解吸性能和高的再生能耗。使用固体酸催化剂的实施提供了一种有效的方法来减少再生能耗。因此,研究高性能的固体酸催化剂对于推进和实施碳捕集技术至关重要。本研究通过超声辅助沉淀法合成了两种路易斯酸催化剂。对两种路易斯酸催化剂和三种前体催化剂的催化解吸性能进行了比较分析。结果表明,CeO-γ-AlO 催化剂表现出优异的催化解吸性能。在 90 至 110°C 的解吸温度范围内,CeO-γ-AlO 催化剂催化 BZA-AEP 的平均解吸速率比没有催化剂时的解吸速率高 87%至 354%,解吸温度可降低约 10°C。对 CeO-γ-AlO 催化剂的催化解吸机理进行了综合分析,结果表明 CeO-γ-AlO 的协同作用在整个解吸过程中都具有很强的催化影响,从富液到贫液。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/8123/10254271/a4b1d6e3ce9c/molecules-28-04438-g001.jpg

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