Abstract: A modified textile sorbent (MTS) material for direct capture of atmospheric CO2, and method for producing the same is disclosed. The MTS material includes a woven material and a sorbent polymer immobilized within the woven material, with the sorbent polymer having a plurality of swing-responsive moieties that respond to at least one of a temperature swing, a pressure swing, and a moisture swing. The method for producing a MTS material includes mixing a monomer of a sorbent polymer, in solution, with a woven material such that the monomer is impregnated into the woven material. The method also includes immobilizing the sorbent polymer within the woven material by polymerizing the monomer that is impregnated into the woven material. and substituting a counterion of the sorbent polymer with a swing-responsive moiety. The monomer is one of styrene-based, acrylate-based, methacrylate-based, silicone-based, or polysulfone-based.

Abstract: Disclosed is a tetrablock polymer including the formula ABAC, wherein A, B and C are each blocks of the polymer, where A is a glassy block; B is a rubbery block; and C is a hydrophilic block. Also, a membrane including any of the disclosed polymers organized to define pores with an average pore diameter of about 15 nm to about 50 nm is disclosed. A supported ionic liquid membrane including any of the disclosed membranes and an ionic liquid within the pores are also disclosed. Methods of forming a membrane and methods of purifying a liquid or gas are disclosed.

Abstract: Disclosed herein is an ion selective separation membrane including: a metal organic framework layer formed on, in, and/or around a substrate, the metal organic framework having a crystal structure that includes a first surface and a second surface and includes ion transport channels formed between respective pore windows in the first surface and the second surface; first and second electrodes to apply a potential difference across the membrane; wherein the respective pore windows have a pore size that is less than the hydrated diameter of the ion for which the ion selective separation membrane is selective.

Abstract: Disclosed herein are mixed matrix membranes, the mixed matrix membranes comprising a metal organic framework CA dispersed in a continuous polymer phase and methods of making and use thereof. The mixed matrix membranes can comprise a plurality of metal organic framework particles comprising UiO-66-(COOH)2 dispersed in a continuous polymer phase. The mixed matrix membranes can comprise a plurality of metal organic framework particles dispersed in a continuous polymer phase comprising polyethersulfone, polyphenylsulfone, Matrimid, Torlon, cellulose acetate, or combinations thereof. Also disclosed herein are mixed matrix membranes for separating a target ion from a non-target ion in a liquid medium. Also described herein methods of separating a target ion from a non-target ion in a liquid medium using a mixed matrix membrane, wherein the mixed matrix membrane comprises a plurality of metal organic framework particles dispersed in a continuous polymer phase.

Abstract: Disclosed herein is an ion selective separation membrane including: a metal organic framework layer formed on, in, and/or around a substrate, the metal organic framework having a crystal structure that includes a first surface and a second surface and includes ion transport channels formed between respective pore windows in the first surface and the second surface; first and second electrodes to apply a potential difference across the membrane; wherein the respective pore windows have a pore size that is less than the hydrated diameter of the ion for which the ion selective separation membrane is selective.

Abstract: Gas separation membrane compositions including at least one crosslinked polymer, gas separation membranes made of such compositions, methods for making such gas separation membranes, and methods of using such membranes to separate gases are described. In one embodiment, the crosslinked polymer includes polyarylene ethers (PAE).

Abstract: Gas separation membrane compositions including at least one crosslinked polymer, gas separation membranes made of such compositions, methods for making such gas separation membranes, and methods of using such membranes to separate gases are described. In one embodiment, the crosslinked polymer includes polyarylene ethers (PAE).

Abstract: The disclosure provides a method of modifying thin film composite membrane support structures. In particular, the disclosure provides method of modifying thin film composite membrane support structures with poly(dopamine) for use with engineered osmosis applications.

Abstract: The present invention includes a method, composition and apparatus for forming a nanoparticle filled polymer having similar gas selectivity and greater gas permeability than the native polymer. The nanoparticle filled polymer includes one or more polymeric materials and one or more nanoparticles dispersed within the one or more polymeric materials that increasing the permeability of the nanoparticle filled polymers relative to the permeability of the native polymer membrane.