Hundreds of polymers have been evaluated as membrane materials for gas separations, but
fewer than 10 have made it into current commercial applications, mainly due to the effects of …

Membrane-based technologies for gas and vapor separations have been industrialized for
more than three decades due to (1) the invention of asymmetric composite membranes and …

Metal–organic framework (MOF) materials, which are constructed from metal ions or metal
ion clusters and bridging organic linkers, exhibit regular crystalline lattices with relatively …

Pervaporation has been regarded as a promising separation technology in separating
azeotropic mixtures, solutions with similar boiling points, thermally sensitive compounds …

A two-dimensional (2D) porous layer can make an ideal membrane for separation of
chemical mixtures because its infinitesimal thickness promises ultimate permeation …

The sharply rising level of atmospheric carbon dioxide resulting from anthropogenic
emissions is one of the greatest environmental concerns facing our civilization today. These …

Over the last at least three decades, the science of porous solid materials has become one
of the most intense areas of study for chemists, physicists, and materials scientists. These …

Pressure-driven ultrafiltration membranes are important in separation applications.
Advanced filtration membranes with high permeance and enhanced rejection must be …

Fundamental water and salt transport properties of polymers are critical for applications such
as reverse osmosis (RO), nanofiltration (NF), forward osmosis (FO), pressure-retarded …

This review concentrates on the advances of atomistic molecular simulations to design and
evaluate amorphous microporous polymeric materials for CO2 capture and separations. A …