Self-assembly is the driving force for the formation of biological materials. From nucleic acid
conformations to more complex cellular organizations, self-assembling structures shape …

Self-assembly in biomolecules and the role of noncovalent interactions to attain ordered
structures always remain an inspiration to researchers in developing novel supramolecular …

Many types of nano-and micro-structures are formed spontaneously through the self-
assembly of biomolecules in nature, but devising chemical strategies to create biomolecular …

Molecular self-assembly is ubiquitous in nature and has recently emerged as a new bottom-
up approach in constructing biomaterials. Synthetic peptides assemble through specific …

Understanding of new materials at the molecular level has become increasingly critical for a
new generation of nanomaterials for nanotechnology, namely, the design, synthesis and …

The design and construction of synthetic self-assembled nanostructures is, in a large part,
inspired from elaborate nanostructures in biological systems. If we look at it from another …

Several self-assembling peptide and protein systems that form nanotubes, helical ribbons
and fibrous scaffolds have recently emerged as biological materials. Peptides and proteins …

This chapter reviews the applications of self-assembling proteins and peptides toward
designing novel biomimetic nanomaterials and their potential applications in …

Peptides and proteins inherently possess biocompatibility, biodegradability, and tunability
for bottom-up fabrication. Non-covalent interactions mediated self-assembly in peptides and …

Self‐assembly is a ubiquitous process in biology where it plays numerous important roles
and underlies the formation of a wide variety of complex biological structures. Over the past …