Slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.

In this work, we report on the development of slit-surface electrospinning--a process that co-localizes two solutions along a slit surface to spontaneously emit multiple core-sheath cone-jets at rates of up to 1 L/h. To the best of our knowledge, this is the first time that production of electrospun...

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Main Authors: Xuri Yan, John Marini, Robert Mulligan, Abby Deleault, Upma Sharma, Michael P Brenner, Gregory C Rutledge, Toby Freyman, Quynh P Pham
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2015-01-01
Series:PLoS ONE
Online Access:https://doi.org/10.1371/journal.pone.0125407
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spelling doaj-6edb4e313fd643998023407dad01780f2021-03-03T20:05:23ZengPublic Library of Science (PLoS)PLoS ONE1932-62032015-01-01105e012540710.1371/journal.pone.0125407Slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.Xuri YanJohn MariniRobert MulliganAbby DeleaultUpma SharmaMichael P BrennerGregory C RutledgeToby FreymanQuynh P PhamIn this work, we report on the development of slit-surface electrospinning--a process that co-localizes two solutions along a slit surface to spontaneously emit multiple core-sheath cone-jets at rates of up to 1 L/h. To the best of our knowledge, this is the first time that production of electrospun core-sheath fibers has been scaled to this magnitude. Fibers produced in this study were defect-free (i.e. non-beaded) and core-sheath geometry was visually confirmed under scanning electron microscopy. The versatility of our system was demonstrated by fabrication of (1) fibers encapsulating a drug, (2) bicomponent fibers, (3) hollow fibers, and (4) fibers from a polymer that is not normally electrospinnable. Additionally, we demonstrate control of the process by modulating parameters such as flow rate, solution viscosity, and fixture design. The technological achievements demonstrated in this work significantly advance core-sheath electrospinning towards commercial and manufacturing viability.https://doi.org/10.1371/journal.pone.0125407
collection DOAJ
language English
format Article
sources DOAJ
author Xuri Yan
John Marini
Robert Mulligan
Abby Deleault
Upma Sharma
Michael P Brenner
Gregory C Rutledge
Toby Freyman
Quynh P Pham
spellingShingle Xuri Yan
John Marini
Robert Mulligan
Abby Deleault
Upma Sharma
Michael P Brenner
Gregory C Rutledge
Toby Freyman
Quynh P Pham
Slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.
PLoS ONE
author_facet Xuri Yan
John Marini
Robert Mulligan
Abby Deleault
Upma Sharma
Michael P Brenner
Gregory C Rutledge
Toby Freyman
Quynh P Pham
author_sort Xuri Yan
title Slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.
title_short Slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.
title_full Slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.
title_fullStr Slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.
title_full_unstemmed Slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.
title_sort slit-surface electrospinning: a novel process developed for high-throughput fabrication of core-sheath fibers.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2015-01-01
description In this work, we report on the development of slit-surface electrospinning--a process that co-localizes two solutions along a slit surface to spontaneously emit multiple core-sheath cone-jets at rates of up to 1 L/h. To the best of our knowledge, this is the first time that production of electrospun core-sheath fibers has been scaled to this magnitude. Fibers produced in this study were defect-free (i.e. non-beaded) and core-sheath geometry was visually confirmed under scanning electron microscopy. The versatility of our system was demonstrated by fabrication of (1) fibers encapsulating a drug, (2) bicomponent fibers, (3) hollow fibers, and (4) fibers from a polymer that is not normally electrospinnable. Additionally, we demonstrate control of the process by modulating parameters such as flow rate, solution viscosity, and fixture design. The technological achievements demonstrated in this work significantly advance core-sheath electrospinning towards commercial and manufacturing viability.
url https://doi.org/10.1371/journal.pone.0125407
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