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

Synthetic iontronic systems harness ions as elementary carriers to perform functions that
mimic those of biological systems; such as information transduction, sensing, and energy …

Conducting target ions rapidly while rejecting rival ions efficiently is challenging yet highly
demanded for ion separation related applications. Two-dimensional (2D) channels are …

Osmotic power, also known as “blue energy”, is a vast, sustainable, and clean energy
source that can be directly converted into electricity by nanofluidic membranes. However …

Osmotic energy represents a promising energy resource because it is sustainable and
environmentally benign. Subnanoscale channels are considered as a competitive platform …

Nanofluidic membranes have shown great promise in harvesting osmotic power. Yet,
previous studies extensively focused on osmotic energy released by the mixing of seawater …

Abstract Two-dimensional (2D) materials have shown great potential in harvesting osmotic
power due to their high membrane selectivity, but the high resistance from tortuous …

The mixing of wastewater and natural water releases abundant osmotic energy. Harvesting
this energy could significantly reduce the energy and economic cost of water treatment …

Designing a nanofluidic membrane with high selectivity and fast ion transport property is the
key towards high‐performance osmotic energy conversion. However, most of reported …

Harvesting osmotic energy plays a crucial role in addressing the global depletion crisis of
fossil energy and achieving a structural transformation in energy. However, current research …