ACS Applied Materials & Interfaces · 2021 · 23 citations · 28 references
Natural SciencesMaterials EngineeringMaterials ScienceMaterials ChemistryPolymer ChemistryPolymer MaterialsComposite MaterialsFabrication MaterialsNanocompositesPolymer ProductionTextile MaterialsHigh-surface-area MaterialsMetal-organic Framework CatalystsMetal-organic Framework CompositesMetal-organic Framework SynthesisMetal-organic FrameworksSolution ProcessingStretchable MaterialsSurface Area
Protocols to create metal–organic framework (MOF)/polymer composites for separation, chemical capture, and catalytic applications currently rely on relatively slow solution-based processing to form single MOF composites. Here, we report a rapid, high-yield sorption-vapor method for direct simultaneous growth of single and multiple MOF materials onto untreated flexible and stretchable polymer fibers and films. The synthesis utilizes favorable reactant absorption into polymers coupled with rapid vapor-driven MOF crystallization to form high surface area (>250 m2/gcomposite) composites, including UiO-66-NH2, HKUST-1, and MOF-525 on spandex, nylon, and other fabrics. The resulting composites are robust and maintain their functionality even after stretching. Stretchable MOF fabrics enable rapid solid-state hydrolysis of the highly toxic chemical warfare agent soman and paraoxon-methyl simulant. We show that this approach can readily be scaled by solution spray-coating of MOF precursors and to large area substrates.
28
Metal–organic frameworks: Structures and functional applications
Long Jiao, Joanne Seow, William Scott Skinner et al. · Materials Today · 2018 · 1.3K citations
Proceedings of the Society for Analytical Chemistry · 1970 · 603 citations