Water desalination and fluid-based energy harvesting systems utilize ion-selective
nanoporous materials that allow preferential transport of ions that are oppositely charged to …

Investigation of ion transport through nanopores with highly overlapping electric double
layers is extremely challenging. This can be attributed to the non-linear Poisson–Boltzmann …

The electric conductance characterizes the response of a nanochannel or nanopore to an
electrical potential drop. It has long been known that at low concentrations the electric …

Nanofluidic diodes are capable of rectifying the electrical current by several orders of
magnitude. In the current state of affairs, determining the rectification factor is not possible as …

It has recently been suggested that a breakdown of electroneutrality occurs in highly
confined nanopores that are encompassed by a dielectric material. This work elucidates the …

Ion exchange membranes (IEMs) are widely used in various industrial sectors from batteries
and energy harvesting to water treatment and are designed to show a high selectivity and a …

Nanofluidic systems exhibit transport characteristics that have made technological marvels
such as desalination and energy harvesting possible by virtue of their ability to influence …

The steady-state current–voltage response of ion-selective systems varies as the number of
ion-selective components is varied. For the highly investigated unipolar system, including …

There has been a great amount of interest in nanopores as the basis for sensors and
templates for preparation of biomimetic channels as well as model systems to understand …

Recent progresses in ionic current analyses related to micro-and nano-object sensing,
electrochemical sensors, and liquid pollution monitoring have attracted significant attention …