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Home > Press > Nano-tech process produces plastics that are 10 times more stretchable

Scientists report development of a plastic that is 10 times more stretchable than that of the original material. Above is a micrograph of the electrospun nano-sized fibers.
Courtesy of the American Chemical Society
Scientists report development of a plastic that is 10 times more stretchable than that of the original material. Above is a micrograph of the electrospun nano-sized fibers.
Courtesy of the American Chemical Society

Abstract:
Move over, Rumplestiltskin. Researchers in China report the first successful "electrospinning" of a type of plastic widely used in automobiles and electronics. The high-tech process, which uses an electric charge to turn polymers into thin fibers in the presence of electricity, produced plastic mats that can stretch 10 times more without breaking than the original material and could lead to new uses for the plastic, they say. Their study is scheduled for the June 10 issue of ACS' Macromolecules, a bi-weekly journal.

Nano-tech process produces plastics that are 10 times more stretchable

Beijing, Peoples Republic of China | Posted on May 28th, 2008

In the new study, Zhao-Xia Guo and colleagues point out that the original plastic, called polyoxymethylene (POM), is an engineering staple known for its metal-like hardness, light weight, and resistance to chemicals. However, the material is relatively brittle, limiting its applications. Although many different types of plastics have been electrospun into fibers with extended uses and properties, researchers have been unable to spin POM into fibers until now, the researchers say.

They report that POM could be turned into nano-sized fibers thousands of times thinner than the width of a single hair after first dissolving it in a solution called HFIP and then undergoing electrospinning. The process resulted in POM mats with improved stretchability, or ductility, high porosity, and high surface area. Such features could extend the plastic's uses to a wide range of industrial, electronic and medical applications, the researchers say. MTS

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Contacts:
Zhao-Xia Guo, Ph.D.
Tsinghua University
Beijing, Peoples Republic of China

Copyright © American Chemical Society (ACS)

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