Formation of Defect-Free Latex Films on Porous Fiber Supports

We present here the creation of a defect-free polyvinylidene chloride barrier layer on the lumen-side of a hollow fiber sorbent. Hollow fiber sorbents have previously been shown to be promising materials for enabling low-cost CO2 capture, provided a defect-free lumen-side barrier layer can be create...

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Veröffentlicht in:ACS applied materials & interfaces 2011-09, Vol.3 (9), p.3568-3582
Hauptverfasser: Lively, Ryan P, Mysona, Joshua A, Chance, Ronald R, Koros, William J
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creator Lively, Ryan P
Mysona, Joshua A
Chance, Ronald R
Koros, William J
description We present here the creation of a defect-free polyvinylidene chloride barrier layer on the lumen-side of a hollow fiber sorbent. Hollow fiber sorbents have previously been shown to be promising materials for enabling low-cost CO2 capture, provided a defect-free lumen-side barrier layer can be created. Film experiments examined the effect of drying rate, latex age, substrate porosity (porous vs nonporous), and substrate hydrophobicity/hydrophilicity. Film studies show that in ideal conditions (i.e., slow drying, fresh latex, and smooth nonporous substrate), a defect-free film can be formed, whereas the other permutations of the variables investigated led to defective films. These results were extended to hollow fiber sorbents, and despite using fresh latex and relatively slow drying conditions, a defective lumen-side layer resulted. XRD and DSC indicate that polyvinylidene chloride latex develops crystallinity over time, thereby inhibiting proper film formation as confirmed by SEM and gas permeation. This and other key additional challenges associated with the porous hollow fiber substrate vs the nonporous flat substrate were overcome. By employing a toluene-vapor saturated drying gas (a swelling solvent for polyvinylidene chloride) a defect-free lumen-side barrier layer was created, as investigated by gas and water vapor permeation.
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subjects Adsorption
Calorimetry, Differential Scanning
Carbon Dioxide - chemistry
Hydrophobic and Hydrophilic Interactions
Latex - chemistry
Polyvinyl Chloride - analogs & derivatives
Polyvinyl Chloride - chemistry
Porosity
X-Ray Diffraction
title Formation of Defect-Free Latex Films on Porous Fiber Supports
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