The influx and efflux of water in biological structures actuates reversible deformation and
recovery processes that are crucial for mechanical functions in plants and animals. These …

The origin of self‐winding mechanisms in plants' tendrils has fascinated scientists for
centuries and continues to inspire developments in material science and nanotechnology …

Plants generate motion by absorbing and releasing water. Many Asteraceae plants, such as
the dandelion, have a hairy pappus that can close depending on moisture levels to modify …

The article explores materials sustainability through a bio‐inspired lens and discusses
paradigms that can reshape the understanding of material synthesis, processing, and …

Plant hydro-actuated systems provide a rich source of inspiration for designing
autonomously morphing devices. One such example, the pentagonal ice plant seed …

The seed capsule of Delosperma nakurense is a remarkable example of a natural
hygromorph, which unfolds its protecting valves upon wetting to expose its seeds. The …

The authors comment on the fabrication and the geometric designs of the cellular actuating
structures. The topics discussed include the methods of actuating the honeycombs, the …

The combination of high stiffness, strength, and toughness of many biological tissues is
achieved through complex 3D arrangement of hard and soft components. While the hard …

Biomimetic materials with programmable stimuli responsiveness constitute a highly
attractive material class for building bioactuators, sensors and active control elements in …

The work presents a bio-inspired design approach to a soft-robotic solution for assisting the
knee-bending in users with reduced mobility in lower limbs. Exosuits and fluid-driven …