The basal plane of graphene can function as a selective barrier that is permeable to protons,
but impermeable to all ions, and gases,, stimulating its use in applications such as …

Metal-organic frameworks (MOFs) materials with tunable structures and functionalities have
demonstrated great potential as promising membrane materials, and play a crucial role in …

The transport of water through nanoscale capillaries/pores plays a prominent role in biology,
ionic/molecular separations, water treatment and protective applications. However, the …

Proton exchange membrane fuel cells (PEMFCs), which use hydrogen as fuel, present an
eco-friendly alternative to internal combustion engines (ICEs) for powering low-to-heavy …

Atomically thin 2D materials present the potential for advancing membrane separations via a
combination of high selectivity (from molecular sieving) and high permeance (due to atomic …

Permeance–selectivity trade-offs are inherent to polymeric membranes. In fuel cells, thinner
proton exchange membranes (PEMs) could enable higher proton conductance and …

Angstrom-scale pores introduced into atomically thin 2D materials offer transformative
advances for proton exchange membranes in several energy applications. Here, we show …

Scalable approaches for synthesis and integration of proton selective atomically thin 2D
materials with proton conducting polymers can enable next-generation proton exchange …

Filtering nanoparticulate aerosols from air streams is important for a wide range of personal
protection equipment (PPE), including masks used for medical research, healthcare, law …

Understanding ion transport in solid materials is crucial in the design of electrochemical
devices. Of particular interest in recent years is the study of ion transport across 2 …