Green Chemical Engineering · 2022 · 40 citations · 90 references
EngineeringChemical EngineeringEnvironmental EngineeringMembrane SciencePolymer EngineeringSeparation ProcessesGas Separation MembranesInorganic MembranesMembrane EngineeringMembrane SeparationMixed-matrix MembranesPolymeric MembranesCarbon Dioxide SeparationCarbon Dioxide Separation MembranesInorganic Gas Separation MembranesInorganic-organic Hybrid MembranesMembrane Gas SeparationMembrane-based SeparationsPlasticization ResistancePolymeric Gas Separation Membranes
Membrane separation technology provides an effective alternative to mitigate the massive carbon emission with high carbon capture productivity and efficiency. In the context of operating membranes under high CO2 pressures allows increased separation productivity and reduced gas compression cost, which, however, often leads to CO2 induced plasticization, a key hurdle for current gas separation membranes. In this review, we reviewed the latest development of membranes with anti-plasticization resistance, potentially suited for operation under high CO2 feed streams. Specifically, the separation performance of polymeric membranes, inorganic membranes, and mixed matrix membranes under high CO2 feed pressures are discussed. Approaches to enhance CO2 induced plasticization of those membranes are also summarized. We conclude the recent progress of membranes for high CO2 pressures with perspectives and an outlook for future development.
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Lloyd M. Robeson · Journal of Membrane Science · 2008 · 5.8K citations
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Gas Separation Membrane Materials: A Perspective
Richard W. Baker, Bee Ting Low · Macromolecules · 2014 · 1.2K citations