The synthesis of hybrid functional materials using the coordination-driven assembly of metal–
phenolic networks (MPNs) is of interest in diverse areas of materials science. To date, MPN …

Metal–phenolic networks (MPNs), formed through coordination bonding between phenolic
molecules and metal ions, are a promising class of materials for engineering particle …

Selective self-assembly in multicomponent mixtures offers a method for isolating desired
components from complex systems for the rapid production of functional materials …

Coordination assembly offers a versatile means to developing advanced materials for
various applications. However, current strategies for assembling metal‐organic networks …

Coordination states of metal‐organic materials are known to dictate their physicochemical
properties and applications in various fields. However, understanding and controlling …

The use of natural compounds for preparing hybrid molecular films—such as surface
coatings made from metal–phenolic networks (MPNs)—is of interest in areas ranging from …

Metal–organic coordination materials are of widespread interest because of the coupled
benefits of inorganic and organic building blocks. These materials can be assembled into …

Interfacial modular assemblies of eco‐friendly metal–phenolic networks (MPNs) are of
interest for surface and materials engineering. To date, most MPNs are assembled on water …

Flexible metal‐organic materials are of growing interest owing to their ability to undergo
reversible structural transformations under external stimuli. Here, we report flexible metal …

Metal ions are ubiquitous in nature and play significant roles in assembling functional
materials in fields spanning chemistry, biology, and materials science. Metal–phenolic …