Ion, particle, and fluid transport in nanofluidic devices has received considerable attention
over the past two decades due to unique transport properties exhibited at the nanoscale. 1 …

The electric organs of electric eels are able to convert ionic gradients into high-efficiency
electricity because their electrocytes contain numerous “subnanoscale” protein ion channels …

Electric eels can convert ionic concentration gradients into a high-efficiency power via a
large number of sub-2 nm transmembrane ion channels, which can exhibit high ion …

Nanochannels remain at the focus of growing scientific and technological interest. The
nanometer scale of the structure allows the discovery of a new range of phenomena that has …

Nanoparticle surface charge density plays an important role in many applications, such as
drug delivery and cellular uptake. In this study, surface charge properties of silica …

Sheath-less focusing and sorting of cells or particles is an important preprocessing step in a
variety of biochemical applications. Most of the previous sorting methods depend on the use …

Fundamental understanding of ion transport phenomena in nanopores is crucial for
designing the next-generation nanofluidic devices. Due to surface reactions of dissociable …

Accurately and rapidly analyzing the ionic current/conductance in a nanochannel, especially
under the condition of overlapped electric double layers (EDLs), is of fundamental …

Fluid‐bicontinuous gels are unique materials that allow two distinct fluids to interact through
a percolating, rigid scaffold. Current restrictions for their use are the large fluid‐channel …

The surface charge property of silica nanoparticles plays a key role in their function.
Previous studies assumed surface charge as a homogeneously distributed constant material …