In nature, biological nanomaterials are synthesized under ambient conditions in a natural
microscopic‐sized laboratory, such as a cell. Biological molecules, such as peptides and …

In this tutorial review the process and applications of peptide self-assembly into nanotubes,
nanospheres, nanofibrils, nanotapes, and other ordered structures at the nano-scale are …

Protein design studies using coiled coils have illustrated the potential of engineering simple
peptides to self-associate into polymers and networks. Although basic aspects of self …

The inherent biocompatibility and potential of biological molecules to undergo chemical and
biological modifications by simple means makes them excellent building blocks for the …

Micro-and nanostructures fabricated from biological building blocks have attracted
tremendous attention owing to their potential for application in biology and in …

Peptide nanotubes are promising bio-inspired self-assemblies with a wide range of
envisioned applications. The present review addresses the recent advances in their …

Nanoscale tubular biomaterials (eg see Fig.) produced by the self‐assembly of peptide
nanotube structures have a potentially wide range of applications in chemistry, biology, and …

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

Understanding the self‐assembly of peptides into ordered nanostructures is recently getting
much attention since it can provide an alternative route for fabricating novel bio‐inspired …

While tremendous efforts have been made in investigating scalable approaches for
fabricating nanoparticles, less progress has been made in scalable synthesis of cyclic …