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 …

This review provides a new perspective on the role of the state-of-the-art polymers of
intrinsic microporosity (PIMs) in key energy-intensive membrane-based gas separations …

Carbon emission has become a worldwide concern with global warming and concurrent
climate changes. Carbon capture using membrane-based technology offers an effective way …

The effective and safe capture and storage of radioactive iodine (129I or 131I) is of
significant importance during nuclear waste storage and nuclear energy generation. Here …

Microporous polymers of extreme rigidity are required for gas-separation membranes that
combine high permeability with selectivity. We report a shape-persistent ladder polymer …

Global CO2 emissions have increased steadily in tandem with the use of fossil fuels. A
paradigm shift is needed in develo** new ways by which energy is supplied and utilized …

We herein report the preparation of a series of hexaphenylbenzene (HPB)‐based deep blue‐
emissive metallacages via multicomponent coordination‐driven self‐assembly. These …

Highly energy-efficient separation of gases can be achieved using polymer membranes as
they do not require thermal regeneration, a phase change or active moving parts in their …

Polymers of intrinsic microporosity (PIMs) are a class of porous organic polymer (POP) that
form microporous solids due to the inefficient packing of their rigid and contorted …

Solution‐processable amorphous glassy polymers of intrinsic microporosity (PIMs) are
promising microporous organic materials for membrane‐based gas and liquid separations …