Aggregation and gelation of globular proteins can be an advantage to generate new forms
of nanoscale biomaterials based on the fibrillar architecture. Here, we report results …

Materials based on ordered protein aggregates have recently received a lot of attention for
their application as drug carriers, due to their biocompatibility and their ability to sequester …

Functional nanofibrils from globular proteins are usually formed by heating for several hours
at pH 2.0, which induces acidic hydrolysis and consecutive self-association. The functional …

We report extended pH-and temperature-induced preparation procedures and explore the
materials and molecular properties of different types of hydrogels made from human and …

We investigate the self-assembly process of the globular protein bovine serum albumin
(BSA) into fibrillar structures upon incubating the protein solution at high temperature (90° C) …

The incorporation of proteins into hydrogel networks has the potential to enhance bioactivity
and biocompatibility. In this work, we report on the fabrication of a polymer–protein hydrogel …

β-Sheet forming peptides have attracted significant interest for the design of hydrogels for
biomedical applications. One of the main challenges is the control and understanding of the …

Self‐assembling peptide hydrogels (SAPHs) represent emerging cell cultures systems in
several biomedical applications. The advantages of SAPHs are mainly ascribed to the …

An effective tissue engineering approach requires adjustment according to the target tissue
to be engineered. The possibility of obtaining a protein-based formulation for the …

Currently, protein-based hydrogels are widely applied in soft materials, tissue engineering
and implantable scaffolds owing to their excellent biocompatibility, and degradability …