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聚合物胶乳的绿色静电纺丝:胶乳性能对纤维形态影响的系统研究

Green Electrospinning of Polymer Latexes: A Systematic Study of the Effect of Latex Properties on Fiber Morphology.

作者信息

Gonzalez Edurne, Barquero Aitor, Muñoz-Sanchez Belén, Paulis María, Leiza Jose Ramon

机构信息

POLYMAT, Kimika Aplikatua Saila, Kimika Fakultatea, University of the Basque Country UPV/EHU, Joxe Mari Korta Zentroa, Tolosa Hiribidea 72, 20018 Donostia-San Sebastián, Spain.

出版信息

Nanomaterials (Basel). 2021 Mar 11;11(3):706. doi: 10.3390/nano11030706.

Abstract

Green electrospinning is a relatively new promising technology in which a polymer (latex) can be spun from an aqueous dispersion with the help of a template polymer. This method is a green, clean and safe technology that is able to spin hydrophobic polymers using water as an electrospinning medium. In this article, a systematic study that investigates the influence of the template polymer molar mass, the total solids content of the initial dispersion and the particle/template ratio is presented. Furthermore, the influence of the surfactant used to stabilize the polymer particles, the surface functionality of the polymer particles and the use of a bimodal particle size distribution on the final fiber morphology is studied for the first time. In green electrospinning, the viscosity of the initial complex blend depends on the amount and molar mass of the template polymer but also on the total solids content of the dispersion to be spun. Thus, both parameters must be carefully taken into account in order to fine-tune the final fiber morphology. Additionally, the particle packing and the surface chemistry of the polymer particles also play an important role in the obtained nanofibers quality.

摘要

绿色静电纺丝是一项相对较新且有前景的技术,借助模板聚合物可从水分散体中纺出聚合物(乳胶)。该方法是一种绿色、清洁且安全的技术,能够以水作为静电纺丝介质纺出疏水性聚合物。本文呈现了一项系统研究,该研究调查了模板聚合物摩尔质量、初始分散体的总固体含量以及颗粒/模板比例的影响。此外,首次研究了用于稳定聚合物颗粒的表面活性剂、聚合物颗粒的表面官能团以及双峰粒径分布的使用对最终纤维形态的影响。在绿色静电纺丝中,初始复合共混物的粘度取决于模板聚合物的量和摩尔质量,还取决于待纺分散体的总固体含量。因此,为了微调最终纤维形态,必须仔细考虑这两个参数。此外,聚合物颗粒的颗粒堆积和表面化学性质在所得纳米纤维质量中也起着重要作用。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/6fe2/7999345/482955eb0b81/nanomaterials-11-00706-g001.jpg

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