ACCU DYNE TEST ™ Bibliography
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640. Iriyama, Y., and H. Yasuda, “Plasma treatment and plasma polymerization for surface modification of flexible poly(vinyl chloride),” in Plasma Polymerization and Plasma Treatment of Polymers, Yasuda, H.K., ed., 97-124, John Wiley & Sons, 1988.
647. Marchant, R.E., C.J. Chou, and C. Khoo, “Effect of nitrogen RF plasma on the properties of polypropylene,” in Plasma Polymerization and Plasma Treatment of Polymers, Yasuda, H.K., ed., 126-138, John Wiley & Sons, 1988.
655. van Oss, C.J., “Acid-base effects at polymer interfaces,” in Polymer Surfaces and Interfaces II, Feast, W.J., H.S. Munro, and R.W. Richards, eds., 267-286, John Wiley & Sons, Apr 1993.
659. Young, R.J., “Characterization of interfaces in polymers and composites using Raman spectroscopy,” in Polymer Surfaces and Interfaces II, Feast, W.J., H.S. Munro, and R.W. Richards, eds., 131-160, John Wiley & Sons, Apr 1993.
740. Chen, W.-L., and K.R. Shull, “Surface modification for adhesion minimization in aqueous environments,” in Polymer Surfaces & Interfaces III, R.W. Richards and S.K. Peace, eds., 269-284, John Wiley & Sons, Jul 1999.
741. Wheale, S.H., J.P.S. Badyal, J. Bech, and N.H. Nilsson, “Atmospheric versus low-pressure plasma oxidation of rubber surfaces,” in Polymer Surfaces & Interfaces III, R.W. Richards and S.K. Peace, eds., 285-297, John Wiley & Sons, Jul 1999.
854. Briggs, D., “Applications of XPS in polymer technology,” in Practical Surface Analysis, 2nd Ed., Vol. 1: Auger and X-ray Photoelectron Spectroscopy, Briggs, D., and M.P. Seah, eds., 437-484, John Wiley & Sons, 1990.
917. Schonhorn, H., “Surface modification of polymers for adhesive bonding,” in Polymer Surfaces, Clark, D.T., and W.J. Feast, eds., 213-233, John Wiley & Sons, 1978.
934. Clark, D.T., A. Dilks, and D. Shuttleworth, “The application of plasmas to the synthesis and surface modification of polymers,” in Polymer Surfaces, Clark, D.T., and W.J. Feast, eds., 185-211, John Wiley & Sons, 1978.
1135. Packham, D.E., “Acid-base surface energy parameters,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 7-9, John Wiley & Sons, Jul 2005.
1136. Padday, J.F., “Contact angle,” in Handbook of Adhesion, 2nd Ed., Packham, D.E., ed., 79-81, John Wiley & Sons, Jul 2005.
1137. Padday, J.F., “Contact angle measurement,” in Handbook of Adhesion, 2nd Ed., Packham, D.E., ed., 82-84, John Wiley & Sons, Jul 2005.
1138. Packham, D.E., “Contact angles and interfacial tension,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 84-86, John Wiley & Sons, Jul 2005.
1139. Briggs, D., “Corona discharge treatment,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 89-90, John Wiley & Sons, Jul 2005.
1140. Packham, D.E., “Critical surface tension,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 94-96, John Wiley & Sons, Jul 2005.
1141. Allen, K.W., “Dispersion forces,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 111-113, John Wiley & Sons, Jul 2005.
1142. Packham, D.E., “Good-Girifalco interaction parameter,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 217-219, John Wiley & Sons, Jul 2005.
1143. Briggs, D., “Hydrogen bonding,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 230-231, John Wiley & Sons, Jul 2005.
1144. Packham, D.E., “Lifshitz-van der Waals forces,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 273-274, John Wiley & Sons, Jul 2005.
1145. Briggs, D., “Plasma treatment,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 325-326, John Wiley & Sons, Jul 2005.
1146. Brewis, D.M., “Pre-treatment of polymers,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 381-383, John Wiley & Sons, Jul 2005.
1147. Brewis, D.M., “Pre-treatments of polyolefins,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 383-385, John Wiley & Sons, Jul 2005.
1148. Shanahan, M.E.R., “Surface characterization by contact angles - polymers,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 511-514, John Wiley & Sons, Jul 2005.
1149. Packham, D.E., “Surface energy,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 514-517, John Wiley & Sons, Jul 2005.
1150. Packham, D.E., “Surface energy components,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 517-520, John Wiley & Sons, Jul 2005.
1151. Shanahan, M.E.R., “Wetting and spreading,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 592-594, John Wiley & Sons, Jul 2005.
1152. Padday, J.F., “Wetting and work of adhesion,” in Handbook of Adhesion, 2nd Ed., D.E. Packham, ed., 594-597, John Wiley & Sons, Jul 2005.
1595. Padday, J.F., “Theory of surface tension,” in Surface and Colloid Science, Vol. 1, Matijevic, E., ed., John Wiley & Sons, 1969.
1718. Jaycock, M.J., and G.D. Parfitt, “The study of liquid interfaces,” in Chemistry of Interfaces, John Wiley & Sons, 1981.
2334. Hudis, M., “Plasma treatment of solid materials,” in Techniques and Applications of Plasma Chemistry, J.R. Hollahan and A.T. Bell, eds., 113-147, John Wiley & Sons, 1974.
2064. Mesic, B., “Ways to improve the printability in flexography of PE-coated cartonboard, using 'smart' polymers and corona treatment (licentiate dissertation),” Karlstad Univ., 2004.
2582. Mesic, B., “Printability of polyethylene-coated paper and paperboard (Doctorate thesis),” Karlstad University, 2006.
2653. no author cited, “How to measure the effect of treatment,” Kasuga Denki Inc., 2008.
2654. no author cited, “Wettability (wetting tension) and watt density,” Kasuga Denki Inc., 2008.
2655. no author cited, “Configuration of a corona treater,” Kasuga Denki Inc., 2008.
2656. no author cited, “Principle of surface modification by corona/gas plasma,” Kasuga Denki Inc., 2008.
2075. W. Keiko, A. Shin'ya, M. Shuichi, T. Kiyoshi, and F. Akio, “Application of flame treatment for degreasing aluminum foil,” Keikinzoku Gakkai Taikai Koen Gaiyo, 93, 263-264, (1997).
2868. Muratov, I., R. Garapov, A Eframova, and A. Khasanov, “The effect of surface treatment of PET films on adhesive properties,” Key Engineering Materials, 869, 394-399, (Oct 2020).
In this work we studied the effect of surface treatment of PET films, which are widely used in food packaging, on the adhesion value of ink layers based on polyvinyl chloride. To give high barrier properties to packaging laminates, the films used in their structure are coated with a nanolayer of aluminum oxide (AlOx). However, these films have a disadvantage associated with the low adhesion of adhesive and ink layers to the AlOx nanolayer. To eliminate this disadvantage, aluminium oxide nanolayer is additionally coated with various polymer coatings. In this work we studied the effect of a polyacrylic coating applied on top of an AlOx layer on improving the adhesion of ink layers. For PET films used in food packaging, optical and surface properties are also important. In this regard, additionally we measured surface free energy, coefficient of friction, and optical properties of the studied PET films. We also highlight the relationship of contact angles of wetting and the work of adhesion for the printing ink with the measured adhesion of ink layers.
1767. Gavrilov, N.V., V.N. Mizgulin, R. Stinnett, and A.V. Kondyurin, “Modification of polymer films of PE, PTFE, PC, PI by pulse ion beams,” Khimicheskaya Fizika i Mesoskopiya, 1, 39-47, (1999).
861. Fracassi, F., “Architecture of RF plasma reactors,” in Plasma Processing of Polymers (NATO Science Series E: Applied Sciences, Vol. 346), d'Agostino, R., P. Favia, and F. Fracassi, eds., 47-64, Kluwer Academic, Nov 1997.
In order to achieve a complete understanding and control of plasma processes an appropriate knowledge of the structure of the particular glow discharge utilized is necessary. This is extremely important because the electrical potential distribution inside a plasma reactor is not uniform and therefore, as a function of the reactor geometry and sample position, charged particles are accelerated from the plasma bulk to the substrate to be treated by different potential drops, ie they impinge on different surfaces with different energy.
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