Photocatalytic water splitting and carbon dioxide (CO2) reduction provide promising
solutions to global energy and environmental issues. In recent years, metal‐organic …

The dream to prepare well-defined materials drives the methodological evolution for
molecular synthesis, structural control and materials manufacturing. Among various …

Metal–organic frameworks (MOFs) have emerged as exciting potential new candidates for
application across nanomedicine, with the first example now in a phase II human clinical …

Transition metal complexes are well‐known homogeneous electrocatalysts. In this regard,
metal–organic frameworks (MOFs) can be considered as an ensemble of transition metal …

Designable morphology and predictable properties are the most challenging goals in
material engineering. Features such as shape, size, porosity, agglomeration ratio …

As a class of porous materials with crystal lattices, metal–organic frameworks (MOFs),
featuring outstanding specific surface area, tunable functionality, and versatile structures …

The variety of functionalities and porous structures inherent to metal-organic frameworks
(MOFs) together with the facile tunability of their properties makes these materials suitable …

Since the first reports of metal–organic frameworks (MOFs), this unique class of crystalline,
porous materials has garnered increasing attention in a wide variety of applications such as …

Architecting a desirable and highly efficient nanocomposite for applications like adsorption,
catalysis, etc. has always been a challenge. Metal Organic Framework (MOF)-based …

Materials capable of the safe and efficient capture or degradation of toxic chemicals,
including chemical warfare agents (CWAs) and toxic industrial chemicals (TICs), are …