Modifications of Paper Surfaces with Composite SiOx/Polymer Coatings

Zhuang Liu; Lin Zhu; Zhi Hui Sun

doi:10.4028/www.scientific.net/AMM.731.437

Paper Titles

Design and Experimental Analysis of Tablets Filling Device
p.416

Research of Printing Machine Simulation System Based on Virtual Reality
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Defects Detection of Pharmaceutical Blister Packaging Based on Shape Template Matching
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Design of one Electrothermal Cutting Machine Used for Producing Packaging Material
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Modifications of Paper Surfaces with Composite SiO_x/Polymer Coatings
p.437

Determination of Partition Behavior of Six Photoinitiators between Paperboard Packaging Materials and Air
p.441

Influence of the Coating Layer Characteristics on the Dynamic Permeability and Printing of Ink-Jet Paper
p.447

Research and Application of Retention Agent in Reversible Thermochromism Materials Papermaking
p.452

Study on the Antibacterial Paper Coated by ZnO/MFC for Food Packaging
p.457

HomeApplied Mechanics and MaterialsApplied Mechanics and Materials Vol. 731Modifications of Paper Surfaces with Composite...

Modifications of Paper Surfaces with Composite SiO_x/Polymer Coatings

Abstract:

The composite SiO_x/polymer films are deposited as a top-coatings onto the paper substrates by radio frequency (RF) reactive magnetron co-sputtered two targets, silica and dicyclopentadiene dioxide cured with maleic anhydride (DCPD/MA).The samples prepared by changing P_SiO2 /P_DCPD_/MA, the ratio of RF powers density delivered to the individual target from 0.1 to 10 so as to prepare different SiOx content coatings. The wettability, mechanical properties, color reproduction printability, chemical characterization of the coatings are discussed in this paper, using contact angle measurements, electronic tensile testing machine, off-set printing test and FTIR. The static contact angle of water ranges from 129.7 to 90.7 o and tensile performance has improved significantly as the ratio of RF powers density change from 0.1 to 10. The ink density and depth of color during off-set printing are visually improved by using papers with hydrophobic surfaces coated composite films.

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Periodical:

Applied Mechanics and Materials (Volume 731)

Pages:

437-440

DOI:

https://doi.org/10.4028/www.scientific.net/AMM.731.437

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Online since:

January 2015

Authors:

Zhuang Liu*, Lin Zhu, Zhi Hui Sun

Keywords:

Composite Films, Dicyclopentadiene Dioxide, Magnetron Co-Sputtering, Paper Coating

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