The design of ion‐selective membranes is the key towards efficient reverse electrodialysis‐
based osmotic power conversion. The tradeoff between ion selectivity (output voltage) and …

The increase of energy demand added to the concern for environmental pollution linked to
energy generation based on the combustion of fossil fuels has motivated the study and …

Extracting osmotic energy through nanoporous membranes is an efficient way to harvest
renewable and sustainable energy using the salinity gradient between seawater and river …

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 …

Energy production is one of today's most pressing issues. Finding alternative energy
sources has become one of the hottest research areas for scholars due to the limited use of …

Harvesting clean and renewable osmotic energy through reverse electrodialysis (RED)
technology offers a promising solution to address energy crisis problems. The development …

Researchers are looking for new, clean, and accessible sources of energy due to rising
global warming caused by the usage of fossil fuels and the irreversible harm that this does to …

The use of concentration gradients across nanofluidic membranes for energy generation
presents a novel and sustainable approach to power production. This study investigates the …

Chemical vapor deposition (CVD) is extensively used to produce large-area two-
dimensional (2D) materials. Current research is aimed at understanding mechanisms …

Nanofluidic channels in a membrane represent a promising avenue for harnessing blue
energy from salinity gradients, relying on permselectivity as a pivotal characteristic crucial for …