Invited SpeakersProfile Details

Prof. Peter Budd
Prof. Peter Budd University of Manchester, UK

Biography

​Peter M. Budd is Professor of Polymer Chemistry at the University of Manchester. He obtained his PhD from Manchester in 1981, then spent 8 years as a research chemist with BP before taking up an academic position at Manchester in 1989. He has extensive experience in materials development relevant to membrane processes and other applications. He is co-inventor of the class of high free volume polymer referred to as "Polymers of Intrinsic Microporosity" (PIMs). For gas separation membranes, PIMs helped to define the 2008 upper bound of performance for important gas pairs. Current research includes EPSRC-funded projects on "Graphene-based membranes", "Organic mixed matrix membrane technologies for post-combustion CO2 capture", "From membrane material synthesis to fabrication and function" and "Safe drinking water from fluoride-rich groundwater", BBSRC-funded work on polyelectrolytes for tissue engineering applications, and industrially sponsored projects on graphene-based barrier materials.

All sessions by Prof. Peter Budd

  • Day 3Wednesday, February 22nd
Session 5: Membranes and Porous Materials: Industrial Perspectives
12:00 pm

Polymers of Intrinsic Microporosity (PIMs): High Free Volume Polymers for Energy-Efficient Separations

Polymers of intrinsic microporosity (PIMs) are glassy polymers which possess high free volume and high internal surface area as a consequence of their relatively rigid, contorted macromolecular backbones. They comprise fused ring sequences interrupted by spiro-centres or other sites of contortion. PIMs have a high affinity for gases such as carbon dioxide, and for small organic species. The first commercial application of a PIM is in a sensor developed by 3M that acts as an end-of-life indicator for organic vapour adsorbing cartridges. PIMs are being investigated as membrane materials and adsorbents for a variety of industrial separation processes, including gas separations (e.g., carbon dioxide capture) and organophilic liquid separations (e.g., bioalcohol recovery). For membrane gas separation, PIMs contributed to the revision of the upper bounds of performance by Robeson in 2008.

In recent years there has been significant research on PIM membranes aimed at tailoring selectivity, enhancing permeability and improving the long-term performance. This includes (1) new polymer synthesis, (2) chemical post-modification of precursor polymers, (3) thermal or ultraviolet treatment of membranes, (4) formation of polymer blends and (5) the addition of inorganic materials, carbons (activated carbons, nanotubes, graphene), metal-organic frameworks or purely organic materials, to form mixed matrix membranes.

Level 0, between bld. 4 and 5 12:00 - 12:30 Details