Abstract
Microporous organic polymers (MOPs) are of potential significance for gas storage1,2,3, gas separation4 and low-dielectric applications5. Among many approaches for obtaining such materials, solution-processable MOPs derived from rigid and contorted macromolecular structures are promising because of their excellent mass transport and mass exchange capability. Here we show a class of amorphous MOP, prepared by [2+3] cycloaddition modification of a polymer containing an aromatic nitrile group with an azide compound, showing super-permeable characteristics and outstanding CO2 separation performance, even under polymer plasticization conditions such as CO2/light gas mixtures. This unprecedented result arises from the introduction of tetrazole groups into highly microporous polymeric frameworks, leading to more favourable CO2 sorption with superior affinity in gas mixtures, and selective CO2 transport by presorbed CO2 molecules that limit access by other light gas molecules. This strategy provides a direction in the design of MOP membrane materials for economic CO2 capture processes.
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Acknowledgements
NRCC No. 52847. The authors acknowledge partial support from the Climate Change Technology and Innovation Initiative, Greenhouse Gas project (CCTII, GHG), Natural Resources Canada (NRCan) and from Vaperma. H.B.P. and M.D.G. acknowledge support by the WCU (World Class University) programme through the National Research Foundation of Korea, funded by the Ministry of Education, Science and Technology (No. R31-2008-000-10092-0). The authors are very grateful to F. Toll of the National Research Council for the BET absorption measurements.
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N.D. experimental design, synthesis and gas permeation experiments, data analysis, manuscript writing; H.B.P. computer modeling, gas permeation and gas adsorption experiments, data analysis, manuscript writing; G.P.R. NMR and TGA-MS experiments, data analysis; M.M.D-C. gas permeation experiments, data analysis; T.V. industrial application input; L.S. assisted in the synthetic experiments; M.D.G. project idea, direction and supervision, experimental design, data analysis, manuscript writing.
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Du, N., Park, H., Robertson, G. et al. Polymer nanosieve membranes for CO2-capture applications. Nature Mater 10, 372–375 (2011). https://doi.org/10.1038/nmat2989
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DOI: https://doi.org/10.1038/nmat2989
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