Conspectus An in-depth appreciation of how to manipulate the molecular-level recognition
between peptides and aqueous materials interfaces, including nanoparticles, will advance …

Peptide sequences are known to recognize and bind different nanomaterial surfaces, which
has resulted in the screening and identification of hundreds of peptides with the ability to …

Nature exploits sustainable methods for the creation of inorganic materials on the nanoscale
for a variety of applications. To achieve such capabilities, biomolecules such as peptides …

The interaction between proteins and the surfaces of inorganic materials is of paramount
importance in natural systems. In recent years, the scope of polypeptide–surface interactions …

Inspired by nature, many applications and new materials benefit from the interplay of
inorganic materials and biomolecules. A fundamental understanding of complex organic …

We present evidence that specific material recognition by small peptides is governed by
local solvent density variations at solid/liquid interfaces, sensed by the side-chain residues …

Noncovalent recognition between peptides and inorganic materials is an established
phenomenon. Key to exploiting these interactions in a wide range of materials self-assembly …

The interactions between biomolecules and solid surfaces play an important role in
designing new materials and applications which mimic nature. Recently, solid-binding …

Peptide self-assembly is the process by which peptide molecules aggregate into low
dimensional (1D, 2D) or 3D ordered materials with potential applications ranging from drug …

Interactions between biomolecules and inorganic surfaces play an important role in natural
environments and in industry, including a wide variety of conditions: marine environment …