Porous organic frameworks (POFs) have become a highly sought-after research domain that
offers a promising avenue for developing cutting-edge nanostructured materials, both in …

Nanoscale lattices formed through the art of controlled self-assembly hold a promise for the
creation of advanced materials with diverse applications. These versatile particles, boasting …

Covalent linker transformations in metal–organic frameworks (MOFs) enable their
functionalization but often suffer from low conversions or require harsh conditions, including …

Metal–organic frameworks (MOFs) comprising periodically repeating inorganic nodes and
organic linkers have emerged as an important class of materials that provide tremendous …

The assembly of metal–organic cages is governed by metal ion coordination preferences
and the geometries of the typically rigid and planar precursor ligands. Pd n L2 n cages are …

Linker functionalization is a practical strategy to extend the applications of metal–organic
frameworks (MOFs) in various fields. Here, this strategy is applied to synthesize a tetrazine …

A versatile post‐synthetic modification strategy to functionalize a high surface area
microporous network (MPN‐OH) by bio‐orthogonal inverse electron‐demand Diels‐Alder …

Abstract Metal-organic frameworks (MOFs), featuring tailor-made structural topology and
porosity (aperture size and geometry) by judicious choices of inorganic second building …

Exploration of high-order multiphoton-excited fluorescent (H-MPEF) material for bioimaging
with deeper tissue penetration and higher spatial resolution has attracted great interest but …

Polymorphism grants metal–organic frameworks (MOFs) a high degree of structural diversity
for various applications. Here, we describe the discovery of three new phases of zirconium …