A gas in between micro-or nanostructures on a submerged superhydrophobic (SHPo)
surface allows the liquid on the structures to flow with an effective slip. If large enough, this …

A comprehensive review of current analytical models, experimental techniques, and
influencing factors is carried out to highlight the current challenges in this area. The study of …

Superhydrophobic surfaces have attracted much attention lately as they present the
possibility of achieving a substantial skin-friction drag reduction in turbulent flows. In this …

Tailoring the hydrodynamic boundary condition is essential for both applied and
fundamental aspects of drag reduction. Hydrodynamic friction on superhydrophobic …

Superhydrophobic surfaces (SHSs) have the potential to achieve large drag reduction for
internal and external flow applications. However, experiments have shown inconsistent …

Superhydrophobic surfaces can retain gas pockets within their microscale textures when
submerged in water. This property reduces direct contact between water and solid surfaces …

Superhydrophobic surfaces can entrap gas pockets within their grooves when submerged in
water. Such a mixed-phase boundary is shown to result in an effective slip velocity on the …

The gas–liquid interface plays a crucial role in reducing the flow resistance of
superhydrophobic surfaces. However, this interface is highly unstable and prone to collapse …

Certain surfaces that exhibit small textured features can interact with near-wall turbulence
and reduce drag, which is of great interest to industries in the aerospace, naval, transport …

We analytically and numerically consider the hydrodynamic and thermal transport behavior
of fully developed laminar flow through a superhydrophobic (SH) parallel-plate channel …