Effects of atmospheric pressure plasma activation on inkjet print quality

M. Pykönen, Liisa Hakola, Kim Eiroma, J. Lahti, Henna Sundqvist, Otto-Ville Kaukoniemi, M. Tuominen, J. Järnström, J. Peltonen, P. Fardim, M. Toivakka

Research output: Chapter in Book/Report/Conference proceedingConference article in proceedingsScientificpeer-review

1 Citation (Scopus)

Abstract

This work concerns the suitability of atmospheric plasma activation for the modification of paper and polymer surfaces and its ability to improve inkjet print quality of conventional non-inkjet printing papers and polymer films. In this work pigment coated and surface sized papers, PE and PP films were modified using two kinds of atmospheric plasma equipment; one at the pilot scale and one at the laboratory scale. The pilot scale plasma activation was also compared to conventional corona treatment. The changes in the surface chemistry were measured using X-ray photoelectron spectroscopy (XPS) and attenuated total reflectance infrared spectrometry (FTIR-ATR). In addition, the surface energy was estimated by contact angle measurements. The topographical changes were measured using atomic force microscopy (AFM). The substrates were printed with different ink types with an inkjet printing system simulating industrial production and print quality and rub resistance were measured. Furthermore, the correlation between surface property changes and inkjet print quality are presented and discussed. The treatments oxidized the surface of the substrates increasing the base and the polar components of the surface energy. The conventional corona treatment gave higher surface energy and oxidation level than the nitrogen and helium plasma activations. The laboratory scale plasma activation was the most efficient one, because of the longest treatment time. Inkjet print quality of PE film clearly improved due to treatments. On the contrary, print quality of PP film worsened. Treatments for the paper substrates lead to relatively small changes.
Original languageEnglish
Title of host publication23rd International Conference on Digital Printing Technologies: Digital Fabrication 2007
Subtitle of host publicationTechnical Program and Proceedings
Place of PublicationSpringfield, VA
PublisherThe Society for Imaging Science and Technology, IS&T
Pages404-409
ISBN (Print) 0892082739
Publication statusPublished - 2007
MoE publication typeA4 Article in a conference publication
Event23rd International Conference on Digital Printing Technologies: Digital Fabrication 2007 - Anchorage, United States
Duration: 16 Sep 200721 Sep 2007

Conference

Conference23rd International Conference on Digital Printing Technologies
CountryUnited States
CityAnchorage
Period16/09/0721/09/07

Fingerprint

atmospheric pressure
activation
surface energy
printing
coronas
helium plasma
nitrogen plasma
polymers
inks
pigments
surface properties
energy levels
photoelectron spectroscopy
atomic force microscopy
chemistry
reflectance
oxidation
spectroscopy
x rays

Cite this

Pykönen, M., Hakola, L., Eiroma, K., Lahti, J., Sundqvist, H., Kaukoniemi, O-V., ... Toivakka, M. (2007). Effects of atmospheric pressure plasma activation on inkjet print quality. In 23rd International Conference on Digital Printing Technologies: Digital Fabrication 2007: Technical Program and Proceedings (pp. 404-409). Springfield, VA: The Society for Imaging Science and Technology, IS&T.
Pykönen, M. ; Hakola, Liisa ; Eiroma, Kim ; Lahti, J. ; Sundqvist, Henna ; Kaukoniemi, Otto-Ville ; Tuominen, M. ; Järnström, J. ; Peltonen, J. ; Fardim, P. ; Toivakka, M. / Effects of atmospheric pressure plasma activation on inkjet print quality. 23rd International Conference on Digital Printing Technologies: Digital Fabrication 2007: Technical Program and Proceedings. Springfield, VA : The Society for Imaging Science and Technology, IS&T, 2007. pp. 404-409
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title = "Effects of atmospheric pressure plasma activation on inkjet print quality",
abstract = "This work concerns the suitability of atmospheric plasma activation for the modification of paper and polymer surfaces and its ability to improve inkjet print quality of conventional non-inkjet printing papers and polymer films. In this work pigment coated and surface sized papers, PE and PP films were modified using two kinds of atmospheric plasma equipment; one at the pilot scale and one at the laboratory scale. The pilot scale plasma activation was also compared to conventional corona treatment. The changes in the surface chemistry were measured using X-ray photoelectron spectroscopy (XPS) and attenuated total reflectance infrared spectrometry (FTIR-ATR). In addition, the surface energy was estimated by contact angle measurements. The topographical changes were measured using atomic force microscopy (AFM). The substrates were printed with different ink types with an inkjet printing system simulating industrial production and print quality and rub resistance were measured. Furthermore, the correlation between surface property changes and inkjet print quality are presented and discussed. The treatments oxidized the surface of the substrates increasing the base and the polar components of the surface energy. The conventional corona treatment gave higher surface energy and oxidation level than the nitrogen and helium plasma activations. The laboratory scale plasma activation was the most efficient one, because of the longest treatment time. Inkjet print quality of PE film clearly improved due to treatments. On the contrary, print quality of PP film worsened. Treatments for the paper substrates lead to relatively small changes.",
author = "M. Pyk{\"o}nen and Liisa Hakola and Kim Eiroma and J. Lahti and Henna Sundqvist and Otto-Ville Kaukoniemi and M. Tuominen and J. J{\"a}rnstr{\"o}m and J. Peltonen and P. Fardim and M. Toivakka",
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Pykönen, M, Hakola, L, Eiroma, K, Lahti, J, Sundqvist, H, Kaukoniemi, O-V, Tuominen, M, Järnström, J, Peltonen, J, Fardim, P & Toivakka, M 2007, Effects of atmospheric pressure plasma activation on inkjet print quality. in 23rd International Conference on Digital Printing Technologies: Digital Fabrication 2007: Technical Program and Proceedings. The Society for Imaging Science and Technology, IS&T, Springfield, VA, pp. 404-409, 23rd International Conference on Digital Printing Technologies, Anchorage, United States, 16/09/07.

Effects of atmospheric pressure plasma activation on inkjet print quality. / Pykönen, M.; Hakola, Liisa; Eiroma, Kim; Lahti, J.; Sundqvist, Henna; Kaukoniemi, Otto-Ville; Tuominen, M.; Järnström, J.; Peltonen, J.; Fardim, P.; Toivakka, M.

23rd International Conference on Digital Printing Technologies: Digital Fabrication 2007: Technical Program and Proceedings. Springfield, VA : The Society for Imaging Science and Technology, IS&T, 2007. p. 404-409.

Research output: Chapter in Book/Report/Conference proceedingConference article in proceedingsScientificpeer-review

TY - GEN

T1 - Effects of atmospheric pressure plasma activation on inkjet print quality

AU - Pykönen, M.

AU - Hakola, Liisa

AU - Eiroma, Kim

AU - Lahti, J.

AU - Sundqvist, Henna

AU - Kaukoniemi, Otto-Ville

AU - Tuominen, M.

AU - Järnström, J.

AU - Peltonen, J.

AU - Fardim, P.

AU - Toivakka, M.

PY - 2007

Y1 - 2007

N2 - This work concerns the suitability of atmospheric plasma activation for the modification of paper and polymer surfaces and its ability to improve inkjet print quality of conventional non-inkjet printing papers and polymer films. In this work pigment coated and surface sized papers, PE and PP films were modified using two kinds of atmospheric plasma equipment; one at the pilot scale and one at the laboratory scale. The pilot scale plasma activation was also compared to conventional corona treatment. The changes in the surface chemistry were measured using X-ray photoelectron spectroscopy (XPS) and attenuated total reflectance infrared spectrometry (FTIR-ATR). In addition, the surface energy was estimated by contact angle measurements. The topographical changes were measured using atomic force microscopy (AFM). The substrates were printed with different ink types with an inkjet printing system simulating industrial production and print quality and rub resistance were measured. Furthermore, the correlation between surface property changes and inkjet print quality are presented and discussed. The treatments oxidized the surface of the substrates increasing the base and the polar components of the surface energy. The conventional corona treatment gave higher surface energy and oxidation level than the nitrogen and helium plasma activations. The laboratory scale plasma activation was the most efficient one, because of the longest treatment time. Inkjet print quality of PE film clearly improved due to treatments. On the contrary, print quality of PP film worsened. Treatments for the paper substrates lead to relatively small changes.

AB - This work concerns the suitability of atmospheric plasma activation for the modification of paper and polymer surfaces and its ability to improve inkjet print quality of conventional non-inkjet printing papers and polymer films. In this work pigment coated and surface sized papers, PE and PP films were modified using two kinds of atmospheric plasma equipment; one at the pilot scale and one at the laboratory scale. The pilot scale plasma activation was also compared to conventional corona treatment. The changes in the surface chemistry were measured using X-ray photoelectron spectroscopy (XPS) and attenuated total reflectance infrared spectrometry (FTIR-ATR). In addition, the surface energy was estimated by contact angle measurements. The topographical changes were measured using atomic force microscopy (AFM). The substrates were printed with different ink types with an inkjet printing system simulating industrial production and print quality and rub resistance were measured. Furthermore, the correlation between surface property changes and inkjet print quality are presented and discussed. The treatments oxidized the surface of the substrates increasing the base and the polar components of the surface energy. The conventional corona treatment gave higher surface energy and oxidation level than the nitrogen and helium plasma activations. The laboratory scale plasma activation was the most efficient one, because of the longest treatment time. Inkjet print quality of PE film clearly improved due to treatments. On the contrary, print quality of PP film worsened. Treatments for the paper substrates lead to relatively small changes.

M3 - Conference article in proceedings

SN - 0892082739

SP - 404

EP - 409

BT - 23rd International Conference on Digital Printing Technologies: Digital Fabrication 2007

PB - The Society for Imaging Science and Technology, IS&T

CY - Springfield, VA

ER -

Pykönen M, Hakola L, Eiroma K, Lahti J, Sundqvist H, Kaukoniemi O-V et al. Effects of atmospheric pressure plasma activation on inkjet print quality. In 23rd International Conference on Digital Printing Technologies: Digital Fabrication 2007: Technical Program and Proceedings. Springfield, VA: The Society for Imaging Science and Technology, IS&T. 2007. p. 404-409