Confined mass transport based on two-dimensional (2D) materials breaks the trade-off effect
between permeability and selectivity, significantly enhancing the efficiency of mass …

Nanopores are powerful tools for single‐molecule sensing of biomolecules and
nanoparticles. The signal coming from the molecule to be analyzed strongly depends on its …

Water flowing at a charged surface may produce electricity, known as streaming
current/potentials, which may be traced back to the 19th century. However, due to the low …

Controlling active transport of water through membrane channels is essential for advanced
nanofluidic devices. Despite advancements in water nanopump design using techniques …

Improving the ionic rectification in nanochannels enables versatile applications such as
biosensors, energy harvesting, and fluidic diodes. While previous work mostly focused on …

The Possion–Nernst–Planck theories fail to describe the ionic transport in Angstrom
channels, where conduction deviates from Ohm's law, which is attributed to the …

Reproducing the outstanding selectivity achieved by biological ion channels in artificial
channel systems can revolutionize applications ranging from membrane filtration to single …

The mass transport behavior through nanoscale channels, greatly influenced by the
structures and dynamics of nanoconfined water, plays an essential role in many biophysical …

Manipulating water flow in nanochannels is crucial for advancing nanotechnology and
nanofluidic. Using molecular dynamics simulation, we demonstrate that both the direction …

Thermal fluctuations can significantly slow down water transfer rate, and result in low
unidirectional transport efficiency. However, in this study, we employ molecular dynamics …