Metal‐organic frameworks (MOFs) are constructed from metal ions or clusters and organic
linkers. Typical MOFs are rather simple, comprising just one type of joint and linker. An …

Great attention has been given to metal–organic frameworks (MOFs)-derived solid bases
because of their attractive structure and catalytic performance in various organic reactions …

In the past two decades, reticular chemistry has developed into a powerful tool for the design
and synthesis of porous, crystalline framework materials. The discovery of the first …

Reticular chemistry has proven as a notable/distinctive discipline aimed at the deliberate
assembly of periodic solids, offering great opportunities to effectively deploy the gained …

Reticular chemistry, the chemistry of linking molecular building blocks by strong bonds to
make crystalline open frameworks, has significantly expanded the scope of chemical …

Introducing multiclusters and multiligands (mm) in a well-defined array will greatly increase
the diversity of metal–organic frameworks (MOFs). Here, a series of porous mm-MOFs …

Dichromate is known for severe health impairments to organisms. New and valid strategies
have been developed to rapidly detect and efficiently remove this pollutant. Constructing …

The incorporation of large π-conjugated ligands into metal–organic frameworks (MOFs) can
introduce intriguing photophysical and electrochemical properties into the framework …

Owing to their permanent porosity, tunability and multifunctionalization, metal–organic
framework (MOF) materials have captured widespread interest in various fields, including …

Ligands with flexible conformations add to the structural diversity of metal–organic
frameworks but, at the same time, pose a challenge to structural design and prediction …