Over the past decade, CO 2 separation and capture have become the new bandwagon for
polymer science and membrane research. This review presents the fundamentals of CO …

Biogas as a renewable energy resource can be broadly recognised as a carbon–neutral fuel
which reduces anthropogenic greenhouse gas emissions, mitigates global warming, and …

Membranes composed of Polymers of Intrinsic Microporosity (PIMs) have the potential for
energy efficient industrial gas separations. Here we report the synthesis and gas …

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 processes have evolved as a competitive approach in CO2 separations
compared with absorption and adsorption processes, due to their inherent attributes such as …

Polyimides (PIs) are an important, well-established, and commercialized class of polymers
due to their extraordinary physical and chemical properties. They have been extensively …

Biogas is an increasingly attractive renewable resource, envisioned to secure future energy
demands and help curb global climate change. To capitalize on this resource, membrane …

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 …

The promise of ultrapermeable polymers, such as poly (trimethylsilylpropyne)(PTMSP), for
reducing the size and increasing the efficiency of membranes for gas separations remains …

Polyamide membranes dominate the membrane industry; yet in their use they have a
fundamental challenge to break through the upper bound due to an uncontrollable …