Metal coordination and peptide-directed self-assembly are two proven methods for creating
defined supramolecular architectures. Here, we report a new class of crystalline materials …

Metal-binding peptides are versatile building blocks in supramolecular chemistry. We
recently reported a class of crystalline materials formed through a combination of coiled-coil …

Peptides are attractive ligands for the design of metal organic frameworks, with the potential
to confer chirality and biological activity on these materials. However, very few such …

Despite impressive advances in the construction of metal–organic frameworks (MOFs), the
formation of networks from peptidic ligands is difficult, though they are sought after for their …

Single amino acids have been vastly used to generate metal–biomolecule frameworks.
Three-dimensional (3D) frameworks based on di-and tripeptide frameworks remain …

The evolution of proteins from simpler, self-assembled peptides provides a powerful
blueprint for the design of complex synthetic materials. Previously, peptide–metal …

Peptide-based biomimetic nanostructures and metal–organic coordination networks on
surfaces are two promising classes of hybrid materials which have been explored recently …

Metal‐coordinated frameworks derived from small peptidic ligands have received much
attention thanks to peptides' vast structural and functional diversity. Various peptides with …

Availing the peptide folded architectures to design metal‐coordinated frameworks and
cages is restricted due to the scarcity of readily accessible short and stable secondary …

This chapter describes how de novo designed peptides can be used as novel preorganized
ligands for metal ion coordination. The focus is on the design of peptides which are …