ACCU DYNE TEST ™ Bibliography
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2180. Sparavigna, A.C., and R.A. Wolf, “Energy curing substrates and inks with plasma aid,” Converter: Flessibili, Carta, Cartone, 59, 76-84, (2006).
2181. Sparavigna, A.C., and R.A. Wolf, “Electron and ion densities in corona plasma,” Czechoslovak J. Physics, 56, B1062-1067, (Oct 2006).
In atmospheric pressure corona systems, the densities of electrons and ions determine the level of treatments. Here, the electron and ion densities in a corona plasma are evaluated for a DC positive-polarity wire discharge in dry air at atmospheric pressure, in the coaxial wire-cylinder geometry. We use a new numerical iterative approach to solve the coupled equations for the electric field and charge densities. The role of electron diffusivity is discussed and the influence of the charge distribution between electrodes on the electric field strength and on the plasma region is analyzed.
2186. Sparavigna, A.C., and R.A. Wolf, “Glow discharges for textiles: Atmospheric plasma technologies for textile industry,” Selezione Tessile, 40-44, (Sep 2005).
346. Spaulding, M., “Ozone-destruct units clear the air,” Converting, 15, 56-58, (Jun 1997).
579. Spell, H.L., and C.P. Christensen, “Surface analysis of corona treated polyethylene: bonding, printability problems,” TAPPI J., 62, 77-81, (1979).
1543. Spell, H.L., et al, “Surface analysis of corona treated PE...,” in TAPPI 1978 Conference Proceedings, 283+, TAPPI Press, 1978.
2283. Spelt, J.K., “Solid surface tension: The use of thermodynamic models to verify its determination from contact angles,” Colloids and Surfaces, 43, 389-411, (1990).
348. Spelt, J.K., D. Li, and A.W. Neumann, “The equation of state approach to interfacial tensions,” in Modern Approaches to Wettability: Theory and Applications, Schrader, M.E., and G.I. Loeb, eds., 101-142, Plenum Press, Oct 1992.
347. Spelt, J.K., D.R. Absolom, and A.W. Neumann, “Solid surface tension: the interpretation of contact angles by the equation of state approach and the theory of surface tension components,” Langmuir, 2, 620-625, (1986).
720. Spelt, J.K., E. Moy, D.Y. Kwok, and A.W. Neumann, “The theory of surface tension components and the equation of state approach,” in Applied Surface Thermodynamics, Neumann, A.W., and J.K. Spelt, eds., 293-332, Marcel Dekker, Jun 1996.
1983. Spelt, J.K., and A.W. Neumann, “Solid surface tension: The equation of state approach and the theory of surface tension components - theoretical and conceptual,” Langmuir, 3, 588-591, (Jul 1987).
719. Spelt, J.K., and D. Li, “The equation of state approach to interfacial tensions,” in Applied Surface Thermodynamics, Neumann, A.W., and J.K. Spelt, eds., 239-292, Marcel Dekker, Jun 1996.
722. Spelt, J.K., and E.I. Vargha-Butler, “Contact angle and liquid surface tension measurements: general procedures and techniques,” in Applied Surface Thermodynamics, Neumann, A.W., and J.K. Spelt, eds., 379-412, Marcel Dekker, Jun 1996.
916. Sprecher, T.W., “Testing corona treatments,” Paper Film & Foil Converter, 57, (Nov 1983).
678. Springael, S., and F. de Buyl, “Uncured silicone sealant surface energy as determined by contact angle measurements: A new quantitative tool for the assessment of sealant ease of use,” in Contact Angle, Wettability and Adhesion, Vol. 2, Mittal, K.L., ed., 317-330, VSP, Sep 2002.
873. Springer, J., and G. Schammler, “Adhesion between plastics and metals: basics,” in Metallizing of Plastics: A Handbook of Theory and Practice, Suchentrunk, R., ed., 3-29, ASM International, 1993.
744. Sprycha, R. and R. Krishnan, “Application of surfactants in liquid printing inks,” in Interfacial Dynamics, Kallay, N., ed., 699-736, Marcel Dekker, Feb 2000.
2896. Srinivasan, S., G.H. McKinley, and R.E. Cohen, “Assessing the accuracy of contact angle mesaurements for sessile drops on liquid-repellant surfaces,” Langmuir, 27, 13582-13589, (Sep 2011).
Gravity-induced sagging can amplify variations in goniometric measurements of the contact angles of sessile drops on super-liquid-repellent surfaces. The very large value of the effective contact angle leads to increased optical noise in the drop profile near the solid–liquid free surface and the progressive failure of simple geometric approximations. We demonstrate a systematic approach to determining the effective contact angle of drops on super-repellent surfaces. We use a perturbation solution of the Bashforth–Adams equation to estimate the contact angles of sessile drops of water, ethylene glycol, and diiodomethane on an omniphobic surface using direct measurements of the maximum drop width and height. The results and analysis can be represented in terms of a dimensionless Bond number that depends on the maximum drop width and the capillary length of the liquid to quantify the extent of gravity-induced sagging. Finally, we illustrate the inherent sensitivity of goniometric contact angle measurement techniques to drop dimensions as the apparent contact angle approaches 180°.
2326. Stark, W., “Electret formation by electrical discharge in air,” J. Electronics, 22, 329-339, (1989).
1533. Starov, V.M., “Surface forces and wetting phenomena,” in Colloid Stability: The Role of Surface Forces - Part II, Vol. 2, Tadros, T.F., ed., 85-108, Wiley-VCH, Feb 2007.
1833. Starov. V.M., S.R. Kosvintsev, and M.G. Velarde, “Sperading of surfactant solutions over hydrophobic substrates,” J. Colloid and Interface Science, 227, 185-190, (Jul 2000).
2440. Stecher, A., “Atmospheric plasma for critical decorating,” Plastics Decorating, 30-36, (Apr 2012).
2632. Stecher, A., “Ask the expert Q & A: Plasma treating,” Plastics Decorating, 46-51, (Jan 2016).
2614. Stecher, A., and P. Mills, “Improving the adhesion of UV-curable coatings to plastics,” Plastics Decorating, 6-11, (Jul 2015).
2092. Steen, M.L., L. Hymas, E.D. Havey, N.E. Capps, D.G. Castner, and E.R. Fisher, “Low temperature plasma treatment of asymmetric polysulfone membranes for permanent hydrophilic surface modification,” J. Membrane Science, 188, 97-114, (Jun 2001).
2560. Stefacka, M., M. Kando, M. Cernak, D. Korzec, E.G. Finantu-Dinu, et al, “Spatial distribution of surface treatment efficiency in coplanar barrier discharge operated with oxygen-nitrogen gas mixtures,” Surface and Coatings Technology, 174-175, 553-558, (Sep 2003).
1012. Stefecka, M., J. Rahel, M. Cernak, I. Hudec, M. Mikula, and M. Mazur, “Atmospheric-pressure plasma treatment of ultrahigh molecular weight polyethylene fibres,” J. Materials Science Letters, 18, 2007-2008, (Dec 1999).
1572. Stegmaier, T., A. Dinkelmann, and V. von Arnim, “Corona and dielectric barrier discharge plasma treatment of textiles for technical applications,” in Plasma Technologies for Textiles, Shishoo, R., ed., 129-180, Woodhead Publishing, Mar 2007.
2361. Stegmeier, G., H. Lenhart, H. Gebler, and H. Diener, “Process for treating the surface of a stretched film,” U.S. Patent 3639134, Feb 1972.
1267. Steinhauser, H., and G. Ellinghorst, “Corona treatment of isotactic polypropylene in nitrogen and carbon dioxide,” Angewandte Makromolekulare Chemie, 120, 177-191, (Feb 1984).
810. Stepczynska, M., and M. Zenkiewicz, “Effects of corona treatment on the surface layer of polylactide,” Polimery, 59, 220-226, (Mar 2014).
The paper investigates the effect of corona discharge (CD) treatment on the properties of surface layer (SL) of polylactide (PLA) film. The modification of PLAwas carried out in the air and helium atmosphere and the results were compared on the basis of the assessment ofwettability, surface free energy (SFE) calculated using Owens-Wendt method aswell as the degree of oxidation (O/C) of the modified SL, determined by photoelectron spectroscopy.
829. Stepczynska, M., and M. Zenkiewicz, “Effect of corona discharge on the wettability and geometric surface structure of polylactide,” Przemysi Chemiczny, 89, 1637-1640, (Dec 2010).
Surface layer of com. polylactide (PLA) was modified with corona discharges and studied for contact angle (H2O, CH2J2) and the geometric structure (at. force microscopy). The surface free energy was caled, by using Owens-Wendt equation. The treatment resulted in a decrease in the contact angle and an Increase in the surface free energy of the PLA film.
349. Stobbe, B.D., “Treater operations require comparison of energy costs,” Paper Film & Foil Converter, 68, 60-61, (Nov 1994).
350. Stobbe, B.D., “Corona treatment 101: Understanding the basics from a narrow web perspective,” Label & Narrow Web Industry, 1, 33-36, (May 1996).
351. Stobbe, B.D., “How to achieve consistency in corona treating,” Converting, 16, 66-68, (Apr 1998).
352. Stobbe, B.D., “Corona discharge treatment for medical surface preparation,” Medical Device and Diagnostic Industry, (Feb 2000).
353. Stobbe, B.D., “The problem solver,” Flexible Packaging, 2, 31-32, (Dec 2000).
892. Stobbe, B.D., “Beginning flexographer: this is corona treating,” Flexo, 24, 60-65, (Feb 1999).
1550. Stobbe, B.D., “Frequency effects on corona discharge treatment,” Corotec Corp., 0.
1553. Stobbe, B.D., “Rx for medical surface preparation: Corona discharge treatment,” http://www.corotec.com/corotec-corporation-technical-papers/rx-for-medical-surface-preparation-corona-discharge-treatment/, 0.
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