Our technological systems are mainly based on semiconductor photovoltaics, electronic
circuits, and (electro) chemical storage reactions. However, in the energy field," ionics" has …

Salinity energy generation (SEG) studies have only been done under isothermal conditions
at ambient temperature. The production of salinity energy can be improved under non …

Harvesting osmotic energy through nanofluidic devices with diverse materials has received
considerable attention in recent years. Often, a small testing area on a membrane was …

Advances in nanofabrication and materials science give a boost to the research in
nanofluidic energy harvesting. Contrary to previous efforts on isothermal conditions, here a …

We theoretically investigate the feasibility of enhancing the reverse electrodialysis power
generation in nanochannels by covering the surface with a polyelectrolyte layer (PEL) …

High-performance osmotic energy conversion requires both large ionic throughput and high
ionic selectivity, which can be significantly promoted by exterior surface charges …

Salinity gradient power generation has attracted much attention for its green and sustainable
advantages. However, previous studies have tended to overlook the effect of reservoir size …

At present, little attention has been paid to the ion current rectification (ICR) performance in
the bilayer nanochannel with non-uniform charge distribution, which has the similar …

Previous studies on nanofluidic salinity gradient power (NSGP), where energy associated
with the salinity gradient can be harvested with ion‐selective nanopores, all suggest that …

To assess the possibility of energy harvesting through reverse electrodialysis (RED), we
consider the electrokinetic behavior of the ion transport in a pH-regulated conical nanopore …