
Covalent triazine frameworks (CTFs) are established as an emerging class of porous organic polymers with remarkable features such as large surface area and permanent porosity, high thermal and chemical stability, and convenient functionalization that promotes great potential in heterogeneous catalysis. In this article, we systematically present the structural design of CTFs as a versatile scaffold to develop heterogeneous catalysts for a variety of chemical reactions. We mainly focus on the functionalization of CTFs, including their use for incorporating and stabilization of nanoparticles and immobilization of molecular complexes onto the frameworks.
PHASE OXIDATION, ORGANIC FRAMEWORKS, metal catalysis, CARBONYLATION, Review, catalytic supports, organic synthesis, CAPTURE, Chemistry, CARBON-DIOXIDE, POLYMERIZATION, heterogeneous catalysis, covalent triazine frameworks, TRANSFER HYDROGENATION, CO2, POLYMERS, TEMPERATURE
PHASE OXIDATION, ORGANIC FRAMEWORKS, metal catalysis, CARBONYLATION, Review, catalytic supports, organic synthesis, CAPTURE, Chemistry, CARBON-DIOXIDE, POLYMERIZATION, heterogeneous catalysis, covalent triazine frameworks, TRANSFER HYDROGENATION, CO2, POLYMERS, TEMPERATURE
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