Micro‐and nanopatterning of proteins on surfaces allows to develop for example high‐
throughput biosensors in biomedical diagnostics and in general advances the …

Spider silks are increasingly gaining interest for potential use as biomaterials in tissue
engineering and biomedical applications. Owing to their facile and versatile processability in …

Photolithography combined with surface nucleated protein self‐assembly of azido‐modified
spider silk proteins is used to create an arbitrarily shaped, inherently cell repellent …

Nucleated protein self-assembly of an azido modified spider silk protein was employed in
the preparation of nanofibrillar networks with hydrogel-like properties immobilized on …

Hydrogels are excellent scaffolds to accommodate sensitive enzymes in a protective
environment. However, the lack of suitable immobilization techniques on substrates and the …

Self‐assembly of a recombinant spider silk protein into nanofibrillar networks in combination
with photolithography is used to produce diversely functionalized micropattern. Amino …

Inspired by nature, scientists have harnessed the natural protein translation machinery to
produce intricate and precise protein‐based polymers (PBPs)—composed of natural amino …

The ability to precisely pattern cells and proteins is crucial in various scientific disciplines,
including cell biology, bioengineering, and materials chemistry. Current techniques, such as …

The assembly of peptides and proteins into nanoscale amyloid fibrils via formation of
intermolecular β-sheets not only plays an important role in the development of degenerative …

Orb-weaving spiders are known to spin up to seven types of silks/glues from different silk
glands. The inherent mechanical variety of these silks makes them attractive models for a …