Polarization treatments of electrospun PVDF fiber mats

Nanostructured materials such as electrospun fibers are used as filters in many applications. Functionalization techniques can affect the filter performance characteristics such as fiber diameter, pore size, thickness and surface charge. Polyvinylidene fluoride (PVDF) is well known for its piezoelec...

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Veröffentlicht in:Polymer (Guilford) 2021-01, Vol.212, p.123152, Article 123152
Hauptverfasser: Gade, Harshal, Bokka, Sreevalli, Chase, George G.
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Chase, George G.
description Nanostructured materials such as electrospun fibers are used as filters in many applications. Functionalization techniques can affect the filter performance characteristics such as fiber diameter, pore size, thickness and surface charge. Polyvinylidene fluoride (PVDF) is well known for its piezoelectric properties and its α, β, γ, δ, and ε crystalline phases. The β crystalline phase exhibits the most polar phase and has higher dipole moment upon mechanically stretching of the polymer. This paper uses a custom-made heat-stretch-poling method to polarize electrospun PVDF fibers. Effects of various polarization -treatments such as stretching, heating and electrical poling on filter characteristics as well as on β-phase were studied individually and as a combination of treatments. As-spun and polarized samples were characterized for pore size distribution, charge, and mat thickness respectively. It was observed that most of the treatments had a significant impact on filter performance but little to no impact on β-phase content as electro-spinning alone resulted in relatively high 83% β-phase content. [Display omitted] •Electrospun PVDF fiber mats were polarized by stretching, heating, and poling.•Charge on mats measured by Faraday bucket.•Time of stretch had significant affect on charge.•Polarization treatments affected mat structure.
doi_str_mv 10.1016/j.polymer.2020.123152
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Functionalization techniques can affect the filter performance characteristics such as fiber diameter, pore size, thickness and surface charge. Polyvinylidene fluoride (PVDF) is well known for its piezoelectric properties and its α, β, γ, δ, and ε crystalline phases. The β crystalline phase exhibits the most polar phase and has higher dipole moment upon mechanically stretching of the polymer. This paper uses a custom-made heat-stretch-poling method to polarize electrospun PVDF fibers. Effects of various polarization -treatments such as stretching, heating and electrical poling on filter characteristics as well as on β-phase were studied individually and as a combination of treatments. As-spun and polarized samples were characterized for pore size distribution, charge, and mat thickness respectively. It was observed that most of the treatments had a significant impact on filter performance but little to no impact on β-phase content as electro-spinning alone resulted in relatively high 83% β-phase content. 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It was observed that most of the treatments had a significant impact on filter performance but little to no impact on β-phase content as electro-spinning alone resulted in relatively high 83% β-phase content. 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subjects Beta phase
Crystal structure
Crystallinity
Deoxidizing
Diameters
Dipole moments
Electrospinning
Faraday bucket
Fibers
Fluorides
Nanostructured materials
Piezoelectricity
Polarization
Polymers
Polyvinylidene fluorides
Pore size
Pore size distribution
Porosity
PVDF
Size distribution
Spinning (materials)
Stretching
Surface charge
Thickness
title Polarization treatments of electrospun PVDF fiber mats
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