<p>Human-induced emissions demand effective CO<sub>2</sub> separation technologies. Energy-efficient membranes, like MXenes with 2D structures, enhance selective gas permeation. This review highlights advancements in improving CO<sub>2</sub> retention of MXene membranes, including self-standing, ion-intercalation, and modification techniques. It also examines MXenes in mixed matrix membranes to optimize CO<sub>2</sub> permeation. Strategies addressing the selectivity-permeability trade-off, humidified MXenes, and hybrid fillers are discussed, along with challenges and future directions in MXene-based CO<sub>2</sub> separation technologies.</p>

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Recent advances in retention and permeation of CO2 gas using MXene based membranes

  • Yasseen Ibrahim,
  • Moustafa M. Zagho,
  • Amr ElAlfy,
  • Alamgir Karim,
  • Ahmed A. Elzatahry

摘要

Human-induced emissions demand effective CO2 separation technologies. Energy-efficient membranes, like MXenes with 2D structures, enhance selective gas permeation. This review highlights advancements in improving CO2 retention of MXene membranes, including self-standing, ion-intercalation, and modification techniques. It also examines MXenes in mixed matrix membranes to optimize CO2 permeation. Strategies addressing the selectivity-permeability trade-off, humidified MXenes, and hybrid fillers are discussed, along with challenges and future directions in MXene-based CO2 separation technologies.