Natural organisms offer abundant inspiration for designing and fabricating hydrogel robots
with autonomous and intelligent behaviors, including motion, perception, and response to …

There is an increasing need for structural flexibility in self-powered wearable electronics and
other Internet of Things (IoT), where adaptable triboelectric nanogenerators (TENGs) play a …

Soft sensing technologies have the potential to revolutionize wearable devices, haptic
interfaces and robotic systems. However, there are numerous challenges in the deployment …

Imparting porosity to 3D printed polymeric materials is an attractive option for producing
lightweight, flexible, customizable objects such as sensors and garments. Although methods …

Biological methods for mosquito larvae control are completely biodegradable and have null
or limited effects on nontarget organisms. However, commercially available products have a …

Magnetorheological elastomer (MRE), which is capable of exhibiting magnetostriction in the
presence of a magnetic field, has a great potential to be used for the development of sensor …

4D printing technology refers to the manufacturing of products using 3D printing techniques
that are capable of changing shape or structure in response to external stimuli. Compared …

Microporous hydrogels have been utilized in an unprecedented manner in the last few
decades, combining materials science, biology, and medicine. Their microporous structure …

Bio‐inspired micro soft robots mimic biologically specific body structures and movement
mechanisms by utilizing bionic principles. Because of its soft body, it can adapt to complex …

Hydrogels are widely used in biological dressing, tissue scaffolding, drug delivery, sensors,
and other promising applications owing to their water‐rich soft structures, biocompatibility …