School of Chemical and Biomolecular Engineering, Faculty of Engineering, The University of Sydney, Sydney, New South Wales 2006, Australia.
School of Chemistry, The University of Sydney, Sydney, New South Wales 2006, Australia.
ACS Appl Mater Interfaces. 2023 Jul 12;15(27):32935-32944. doi: 10.1021/acsami.3c05495. Epub 2023 Jun 27.
The hybrid ultraporous material TIFSIX-Ni ([Ni(pyrazine)(TiF)]) was incorporated into a composite ink for the first time for the three-dimensional (3D) printing of monoliths. The large-scale synthesis of TIFSIX-Ni was completed using two different Ni(II) salts, with CO uptakes of 1.90 mmol g achieved using mechanochemically assisted thermal synthesis. The monoliths were then tested for the capture and release of CO gas using electric swing adsorption (ESA) under dry and humid conditions. A working capacity of 1.7% was achieved (comparing dynamic data with isotherm data) when a current of 2.1 A was applied for 10 min. The monolith could be cycled repeatedly for 6 h without impacting the performance of the material or loss of capacity. Part of this work explored the improvement of mechanochemically assisted synthetic methods of TIFISX-Ni in reducing the costs associated with large-scale production, allowing for improvements in the overall scale-up and processability of the material for industrial applications.
首次将混合超多孔材料 TIFSIX-Ni([Ni(pyrazine)(TiF)]) 纳入复合油墨中,用于整体式的 3D 打印。通过两种不同的 Ni(II)盐完成了 TIFSIX-Ni 的大规模合成,采用机械化学辅助热合成法实现了 1.90 mmol g 的 CO 吸收量。然后,使用电动摆动吸附(ESA)在干燥和潮湿条件下测试了整体式对 CO 气体的捕获和释放性能。当施加 2.1 A 的电流 10 分钟时,实现了 1.7%的工作容量(将动态数据与等温数据进行比较)。该整体式可以在 6 小时内反复循环,而不会影响材料的性能或容量损失。这项工作的一部分探讨了改进 TIFISX-Ni 的机械化学辅助合成方法,以降低与大规模生产相关的成本,从而提高材料的整体放大和工业应用的可加工性。