Spider silk is a natural polymeric fiber with high tensile strength, toughness, and has distinct
thermal, optical, and biocompatible properties. The mechanical properties of spider silk are …

Multiscale structures of biological materials exhibit inherent multifunctional integration. This
special biological solution provides some inspiration for scientists and engineers to design …

Leveraging liquid crystal elastomers (LCEs) to realize scalable fabrication of high‐
performing fibrous artificial muscles is of particular interest because these active soft …

Despite the remarkable progress made in perovskite solar cells, great concerns regarding
potential Pb contamination risk and environmental vulnerability risks associated with …

Self‐powered electronics using triboelectric nanogenerators (TENGs) is drawing increasing
efforts and rapid advancements in eco/biocompatible energy harvesting, intelligent sensing …

Animal silk is usually considered to exist as a solid fiber with a highly ordered structure,
formed by the hierarchical assembly starting from a single silk fibroin (SF) chain. However …

Neurons exhibit excellent signal transmission capacity, which inspire artificial neuron
materials for applications in the field of wearable electronics and soft robotics. In addition …

Replicating the controlled nanofibrillar architecture of collagenous tissue represents a
promising approach in the design of tendon replacements that have tissue-mimicking …

Under eons of evolutionary and environmental pressure, biological systems have developed
strong and lightweight peptide‐based polymeric materials by using the 20 naturally …

Natural silk spinning is the strategy used by spiders and silkworms to construct their ultra‐
strong‐and‐tough silks. It can be considered as an optimized meso‐assembly processing …