
doi: 10.3390/app7040337
Atmospheric pressure plasma treatment of the surface of a polypropylene film can significantly increase its surface energy and, thereby improve the printability of the film. A laboratory-scale dielectric barrier discharge (DBD) system has therefore been developed, which simulates the electrode configuration and reel-to-reel web transport mechanism used in a typical industrial-scale system. By treating the polypropylene in a nitrogen discharge, we have shown that the water contact angle could be reduced by as much as 40° compared to the untreated film, corresponding to an increase in surface energy of 14 mNm−1. Ink pull-off tests showed that the DBD plasma treatment resulted in excellent adhesion of solvent-based inks to the polypropylene film.
Technology, QH301-705.5, dielectric barrier discharge; atmospheric pressure plasma; surface energy; polypropylene, T, Physics, QC1-999, dielectric barrier discharge, Engineering (General). Civil engineering (General), atmospheric pressure plasma, Chemistry, surface energy, TA1-2040, Biology (General), QD1-999, polypropylene
Technology, QH301-705.5, dielectric barrier discharge; atmospheric pressure plasma; surface energy; polypropylene, T, Physics, QC1-999, dielectric barrier discharge, Engineering (General). Civil engineering (General), atmospheric pressure plasma, Chemistry, surface energy, TA1-2040, Biology (General), QD1-999, polypropylene
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