Literature DB >> 17889398

Formation of fibers by electrospinning.

Gregory C Rutledge1, Sergey V Fridrikh.   

Abstract

Electrostatic fiber formation, also known as "electrospinning", has emerged in recent years as the popular choice for producing continuous threads, fiber arrays and nonwoven fabrics with fiber diameters below 1 microm for a wide range of materials, from biopolymers to ceramics. It benefits from ease of implementation and generality of use. Here, we review some of the basic aspects of the electrospinning process, as it is widely practiced in academic laboratories. For purposes of organization, the process is decomposed into five operational components: fluid charging, formation of the cone-jet, thinning of the steady jet, onset and growth of jet instabilities that give rise to diameter reduction into the submicron regime, and collection of the fibers into useful forms. Dependence of the jetting phenomenon on operating variables is discussed. Continuum level models of the jet thinning and jet instability are also summarized and put in some context.

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Year:  2007        PMID: 17889398     DOI: 10.1016/j.addr.2007.04.020

Source DB:  PubMed          Journal:  Adv Drug Deliv Rev        ISSN: 0169-409X            Impact factor:   15.470


  34 in total

1.  Multicomponent amorphous nanofibers electrospun from hot aqueous solutions of a poorly soluble drug.

Authors:  Deng-Guang Yu; Li-Dong Gao; Kenneth White; Christopher Branford-White; Wei-Yue Lu; Li-Min Zhu
Journal:  Pharm Res       Date:  2010-08-19       Impact factor: 4.200

2.  Generation of multilayered structures for biomedical applications using a novel tri-needle coaxial device and electrohydrodynamic flow.

Authors:  Z Ahmad; H B Zhang; U Farook; M Edirisinghe; E Stride; P Colombo
Journal:  J R Soc Interface       Date:  2008-10-06       Impact factor: 4.118

3.  Relationships between specific surface area and pore size in electrospun polymer fibre networks.

Authors:  S J Eichhorn; W W Sampson
Journal:  J R Soc Interface       Date:  2009-10-07       Impact factor: 4.118

4.  A novel electrospinning target to improve the yield of uniaxially aligned fibers.

Authors:  Virgil P Secasanu; Christopher K Giardina; Yadong Wang
Journal:  Biotechnol Prog       Date:  2009 Jul-Aug

5.  Whipping of electrified liquid jets.

Authors:  Josefa Guerrero; Javier Rivero; Venkata R Gundabala; Miguel Perez-Saborid; Alberto Fernandez-Nieves
Journal:  Proc Natl Acad Sci U S A       Date:  2014-09-08       Impact factor: 11.205

6.  Photo-response behavior of electrospun nanofibers based on spiropyran-cyclodextrin modified polymer.

Authors:  Frederico B De Sousa; João D T Guerreiro; Minglin Ma; Daniel G Anderson; Chester L Drum; Rubén D Sinisterra; Robert Langer
Journal:  J Mater Chem       Date:  2010-09-28

7.  bFGF-containing electrospun gelatin scaffolds with controlled nano-architectural features for directed angiogenesis.

Authors:  Ramon B Montero; Ximena Vial; Dat Tat Nguyen; Sepehr Farhand; Mark Reardon; Si M Pham; Gavriil Tsechpenakis; Fotios M Andreopoulos
Journal:  Acta Biomater       Date:  2011-12-13       Impact factor: 8.947

8.  Putting Electrospun Nanofibers to Work for Biomedical Research.

Authors:  Jingwei Xie; Xiaoran Li; Younan Xia
Journal:  Macromol Rapid Commun       Date:  2008-11-19       Impact factor: 5.734

9.  Electrospinning covalently cross-linking biocompatible hydrogelators.

Authors:  Kelly M Schultz; Laura Campo-Deaño; Aaron D Baldwin; Kristi L Kiick; Christian Clasen; Eric M Furst
Journal:  Polymer (Guildf)       Date:  2012-11-09       Impact factor: 4.430

10.  Coaxial electrospinning of liquid crystal-containing poly(vinylpyrrolidone) microfibres.

Authors:  Eva Enz; Ute Baumeister; Jan Lagerwall
Journal:  Beilstein J Org Chem       Date:  2009-10-23       Impact factor: 2.883

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