Abstract Silk-Elastinlike Protein-Based Polymers (SELPs) can form thermoresponsive
hydrogels that allow for the generation of in-situ drug delivery matrices. They are produced …

Current cutting-edge strategies in biomaterials science are focused on mimicking the design
of natural systems which, over millions of years, have evolved to exhibit extraordinary …

The condensation and aggregation of individual protein molecules into dense insoluble
phases is of relevance in such diverse fields as materials science, medicine, structural …

Amyloids are fibrillar nanostructures of proteins that are assembled in several physiological
processes in human cells (eg, hormone storage) but also during the course of infectious …

Self-templated protein aggregation and intracerebral deposition of aggregates, sometimes
in the form of amyloid fibrils, is a hallmark of mammalian prion diseases. What distinguishes …

Natural silk fibers represent one of the most advanced blueprints for (bio) polymer scientists,
displaying highly optimized mechanical properties due to their hierarchical structures …

The pathogenesis of common diseases, such as Alzheimer's disease (AD) and cancer, are
currently poorly understood. Inflammation is a common risk factor for cancer and AD. Recent …

The chemical and physical mechanisms by which gyrating beads accelerate amyloid
fibrillization in microtiter plate assays are unclear. Identifying these mechanisms will help …

The development of intricate and complex self‐assembling structures in the micrometer
range, such as biomorphs, is a major challenge in materials science. Although complex …

The ability to design synthesis processes that are out of equilibrium has opened the
possibility of creating nanomaterials with remarkable physicochemical properties, choosing …