Programmable self‐assembly of peptides into well‐defined nanostructures represents one
promising approach for bioinspired and biomimetic synthesis of artificial complex systems …

Peptides have been extensively utilized to construct nanomaterials that display targeted
structure through hierarchical assembly. The self-assembly of both rationally designed …

Natural biomolecular systems have evolved to form a rich variety of supramolecular
materials and machinery fundamental to cellular function. The assembly of these structures …

Self‐assembled structures obtained from organic molecules have shown great potential for
applications in a wide range of domains. In this context, short peptides prove to be a …

The de novo design of new peptide assemblies that expands the repertoire of biomaterial
nanostructures has been of a tremendous challenge. Hence, it is evident that a successful …

Natural systems are typically featured with tremendous molecular complexity and construct
exquisite architectures and functional materials through precise spatial and temporal control …

In Nature, life function and activity substantially depend on self-assembly and self-
organization of biomolecular building blocks. Among a variety of biomolecules, peptides …

Using peptide assemblies with emergent properties to achieve elaborate functions has
attracted increasing attention in recent years. Besides tailoring the self‐assembly of peptides …

Abstract Peptides and proteins are the most diverse building blocks in biomolecular self-
assembly in terms of chemistry, nanostructure formation and functionality. Self-assembly is …

Herein, we report the rich morphological and conformational versatility of a biologically
active peptide (PEP‐1), which follows diverse self‐assembly pathways to form up to six …