Many organisms in nature thrive in intricate habitats through their unique bio-adhesive
surfaces, facilitating tasks such as capturing prey and reproduction. It's important to note that …

Nature has developed unique strategies to refine and optimise structural performance.
Using surfaces designed at multiple length scales, from micro to nano levels, combined with …

Superhydrophobic surfaces with structure-dependent switchable wettability have recently
drawn considerable attention due to their special applications in droplet manipulation …

As an emerging fringe science, bionics integrates the understanding of nature, imitation of
nature, and surpassing nature in one aspect, and it organically combines the synergistic …

Nature is the source of human design inspiration. In order to adapt to the environment better,
creatures in nature have formed various morphological structures during billions of years of …

Creating superhydrophobic surfaces with varying liquid–solid adhesion holds significant
applications in waterproofing, lab-on-chip, and self-cleaning. Biological superwetting …

Controllable wettability on the surface is widely used in architecture coating, energy transfer,
microfluidics, etc. Much progress has been focused on liquid wetting state transition of the …

In this paper, superhydrophobic magnetically responsive micro-plate arrays (SMMAs) with
reverse switching wettability were studied for in-situ capturing, releasing, and directional …

Rose petals exhibit a phenomenal wetting property of being sticky and superhydrophobic
simultaneously. A recent study has shown that for short timescales, associated with drop …

Hypothesis: It has been verified that a surface of single micro-scale structures with certain
roughness could exhibit petal effect. That is, water drops with a contact angle larger than …