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An Improved In-line Inkjet Printing Process for 3D Multilayer Passive Devices

Published online by Cambridge University Press:  22 May 2012

A. Yakoub
Affiliation:
Ecole Nationale Supérieure des Mines de St-Etienne, Centre de Microélectronique de Provence, 13120 Gardanne, France.
M. Saadaoui
Affiliation:
Ecole Nationale Supérieure des Mines de St-Etienne, Centre de Microélectronique de Provence, 13120 Gardanne, France.
R. Cauchois
Affiliation:
Ecole Nationale Supérieure des Mines de St-Etienne, Centre de Microélectronique de Provence, 13120 Gardanne, France. Gemalto, department of Innovation & Manufacturing Technologies, 13420, Gemenos, France.
J-M. Li
Affiliation:
Ecole Nationale Supérieure des Mines de St-Etienne, Centre de Microélectronique de Provence, 13120 Gardanne, France.
P. Benaben
Affiliation:
Ecole Nationale Supérieure des Mines de St-Etienne, Centre de Microélectronique de Provence, 13120 Gardanne, France.
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Abstract

This paper describes an in-line process for the realization of 3D electronic components on A4 format substrate by piezo inkjet printing. This process is developed within a semi-industrial prototype system named “JETPAC”. JETPAC includes an oxygen plasma torch for surface preparation and post-process modules as a variable frequency microwave oven and an UV lamp for metal selective sintering and dielectric ink curing, respectively. JETPAC is used to achieve passive components by chaining conductor and dielectric layers on kapton® substrate: silver nanoparticles based ink is used to print conductors. For multilayer component elaboration, the metal ink is deposited both on kapton® and on printed dielectric materials. Due to a low surface energy (S.E) of the printed dielectric, the realization of efficient silver tracks is compromised. A special process combines O2 plasma treatment and UV exposure before printing, allowing the reaching of S.E. value on dielectric near the optimum one (55mN/m). This pre-process allows printing of well-defined conductive structures on top of the dielectric. In-line sintering of printed structures is then performed using variable frequency microwave source. The process allows the elaboration of multilayer structures including stacked resistors and capacitors. These results make the developed process very promising for the realization by inkjet printing of passive devices for smart tag applications.

Type
Research Article
Copyright
Copyright © Materials Research Society 2012

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References

REFERENCES

1. Mager, D. et al. ., “An MRI Receiver Coil Produced by Inkjet Printing Directly on to a Flexible Substrate”, Medical Imaging, IEEE, Feb. 2010, Vol. 29, Issue:2, p482.Google Scholar
2. Bonadiman, R. and Salazar, M.M.P., “Reliability of Ag Ink Jet Printed Traces on Polyimide Substrate”, ESTC2010, 3rd.Google Scholar
3. Mengel, M., Nikitin, I., “Inkjet Printed dielectrics for electronic packaging of chip embedding modules”, Microelectronic Engineering 87, 2010, 593596.Google Scholar
4. Yakoub, A., Le-henry, A., Calmes, C., Saadaoui, M., Benaben, P., “Multilayer Printed 3D Resistors Fabricated by an In-Line Inkjet Process For RFID”, Proceedings Large-area Organic and Printed Electronics Convention, Lope-C 2011.Google Scholar
5. Kang, B-J. et al. ., “Effect of plasma surface treatments on inkjet-printed feature sizes and surface characteristics”, Microelectronic Engineering, 2010.Google Scholar
6. Cepeda, D., Davis, C. and May, G.,” Identification of significant process parameters in variable frequency microwave curing”, SoutheastCon, 2007. Proceedings. IEEE, p590.Google Scholar