Microfluidics and wettability are interrelated and mutually reinforcing fields, experiencing
synergistic growth. Surface wettability is paramount in regulating microfluidic flows for …

Superhydrophobic biological fluid‐repellent surfaces (SBFRSs) have attracted great
attention in the treatment of blood and urine‐related diseases because of their unique …

Water harvesting from air is desired for decentralized water supply wherever water is
needed. When water vapor is condensed as droplets on a surface the unremoved droplets …

Liquid super‐repellent surfaces, characterized by a low liquid–solid contact fraction, allow
various liquids to bead up and freely roll off. Apart from liquid repellency, these surfaces …

Many natural surfaces are capable of rapidly shedding water droplets—a phenomenon that
has been attributed to the presence of low solid fraction textures (Φs~ 0.01). However …

Superhydrophobic surfaces have many interesting applications because of their self‐
cleaning, waterproof, anti‐biofouling, anti‐corrosion, and low‐adhesion properties …

Maintaining both high static liquid repellency and large dynamic pressure resistance is
highly preferred for a myriad of applications, such as energy conversion, anti-icing, and …

Wetting and drying of pores or cavities, made by walls that attract or repel the liquid, is a
ubiquitous process in nature and has many technological applications including, for …

Hydrophobic membranes suffer from wetting and scaling when treating hypersaline brine
using membrane distillation (MD). Thus omniphobic membranes with re-entrant surfaces …

Natural organisms can create various microstructures via a spontaneous growth mode. In
contrast, artificial protruding microstructures are constructed by subtractive methods that …