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Linking membrane structure to performance

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Most commercial membranes are fabricated using the phase inversion (PI) or interfacial polymerization (IP) processes. Both processes are limited by random fluctuations that form pores of unpredicted and unspecified sizes. Our approach is to discard PI and IP by developing pore structures by design using in vitro evolution.  To do this we need a fluid mechanics and intermolecular forces tool that can evaluate the selectivity of different proposed structures 'in silico'. We plan to test these new structures computationally and experimentally so as to achieve optimal performance. We will also fabricate and evaluate the designed membrane structures using 3D printing. 

Sorci et al., (2020) Linking Microstructure of Membranes and Performance, Journal of Membrane Science, 594, 117419

Latest News

June 2023

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Graduate student, Pranav Ramesh has defended his PhD thesis titled "Synthesis and Application of brush membranes for organic solvent nanofiltration". 

Dr. Ramesh (left) with Prof. Belfort (right)

May 2023

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Graduate student, Riddhi Banik gave an oral presentation titled "Immobilization of affinity groups on membranes to capture mRNA by design" at the 8th Graduate Student Symposium.

April 2023

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Graduate student, Pranav Ramesh's latest work titled "Highly tunable structure-by-design polymer brush membranes for organic solvent nanofiltration" has been published in Journal of Membrane Science. (https://authors.elsevier.com/c/1gxdF1LgHNjzlr)

March 2023

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2023 RNA Institute Annual Symposium, University at AlbanyProf. Georges Belfort delivered invited talk on "Novel adsorptive membranes for mRNA capture for vaccine manufacture"

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