Understanding and exploring the transport behaviors of ions and molecules in the nano and
sub-nano confinement has great meaning in the fields of nanofluidics and basic transport …

Fluid transport at the nanoscale is ubiquitous in nature. However, rigorous study of fluid flow
and structure in artificial nanopores only emerged relatively recently. Termed nanofluidics …

Selective solvent and solute transport across nanopores is fundamental to membrane
separations, yet it remains poorly understood, especially for non-aqueous systems. Here, we …

In digital computing, functions such as processing and memory require separate
components wired together for electronic conduction. Neurons, the functional units …

Nanochannels in laminated graphene oxide nanosheets featuring confined mass transport
have attracted interest in multiple research fields. The use of nanochannels for reverse …

Nanofluidic devices have been widely used for diode‐like ion transport and salinity
gradients energy conversion. Emerging reverse electrodialysis (RED) nanofluidic systems …

The human brain completes intelligent behaviors such as the generation, transmission, and
storage of neural signals by regulating the ionic conductivity of ion channels in neuron cells …

Membrane-based technologies can provide cost-effective and energy-efficient methods for
various separation processes. The key goal is to develop materials with uniform, tunable …

Shape‐memory photonic crystals (SMPCs) transform the nanoscale deformation of
copolymers into structural color through an undifferentiated response to stimuli; however …

Understanding the transport behavior of molecules within nanopores is crucial in various
fields, including nanofluidic, bioengineering and geophysics. To elucidate oil flow within …