This review discusses the real-world application of metal–organic frameworks (MOFs)-
based nanocatalysts for direct conversion of carbon dioxide (CO 2) to value-added …

Reticular chemistry—the linking of well-defined molecular building blocks by strong bonds
into crystalline extended frameworks—has enabled the synthesis of diverse metal–organic …

The emissions of carbon dioxide (CO 2) and other greenhouse gases from rapidly growing
industries and households are of great concern. These emissions cause problems like …

Different materials, such as metal sulphides, are often combined with metal-organic
frameworks (MOFs) to develop multi-functional composites and improve their photocatalytic …

Reticular frameworks including metal− organic frameworks (MOFs) and covalent organic
frameworks (COFs), and their derived materials have drawn global attention in the capture …

The catalytic performance of metal–organic framework (MOF)-based catalysts can be
enhanced by increasing their catalytic sites, which prompts us to explore the multicore …

By incorporating the F substituent in tetrazolate–carboxylate ligands and combining the
dipyridyl co-linkers, novel Zn-MOF,[(CH3) 2NH2][Zn1. 5 (μ3-O) 0.5 (F-tzba) 1.25 (bpy) 0.25 …

The engineering application of metal organic framework (MOFs) is closely related to
physical properties such as crystal morphology, size, porosity, crystallinity, defectivity …

Ionic metal–organic frameworks (MOFs) offer a new platform to design and construct
complete heterogeneous bifunctional catalytic systems for the chemical fixation of CO2 with …

The past 20 years have witnessed tremendous advances in the field of porous materials,
including the development of novel metal–organic frameworks (MOFs) that show great …