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Zeolites are crystalline microporous aluminosilicates widely recognized for their unique structure, exceptional surface area, and tunable chemical properties. These materials are characterized by a highly ordered pore network and remarkable ion-exchange capabilities, making them indispensable in catalysis, adsorption, and separation processes. The significance of zeolites in catalysis lies in their ability to act as heterogeneous catalysts with high selectivity and efficiency, facilitating critical reactions in petrochemical refining and environmental remediation. Their framework, which accommodates various cations and functional groups, allows for precise tailoring of catalytic activity for specific reactions. Currently, researchers are focusing on developing hierarchical zeolites with mesopores to overcome the diffusion limitations inherent in traditional zeolites. These advanced materials enhance the accessibility of active sites and improve catalytic performance in bulky molecule transformations.
This collection aims to facilitate the dissemination of original research on the nanoscale engineering of zeolites, including their integration with catalytic atoms, particles, or other porous materials such as MOFs. Additionally, it welcomes studies focused on understanding and mitigating catalyst deactivation mechanisms to enhance the longevity of zeolite catalysts.
This Collection supports and amplifies research related to SDG 07 clean energy.