DocumentCode
1381827
Title
Collimated Aerosol Beam Deposition: Sub-5-
m Resolution of Printed Actives and Passives
Author
Schulz, D.L. ; Hoey, J.M. ; Thompson, D. ; Swenson, O.F. ; Han, S. ; Lovaasen, J. ; Dai, X. ; Braun, C. ; Keller, K. ; Akhatov, I.S.
Author_Institution
Dept. of Mech. Eng., North Dakota State Univ., Fargo, ND, USA
Volume
33
Issue
2
fYear
2010
fDate
5/1/2010 12:00:00 AM
Firstpage
421
Lastpage
427
Abstract
Materials deposition based upon directed aerosol flow has the potential of finding application in the field of flexible electronics where a low-temperature route to printed transistors with high mobilities remains elusive. NDSU has been actively engaged in addressing this opportunity from the following two perspectives: 1) developing an appreciation of the basic physics that dominate aerosol beam deposition toward engineering a robust method that allows the realization of deposited features with sub-5 μm resolution; and, 2) developing an understanding of the mechanistic transformations of silane-based precursor inks toward the formation of electronic materials at atmospheric-pressure. In this paper, we will briefly discuss the genesis of a new materials deposition method termed collimated aerosol beam direct-write (CAB-DW) where precision linewidth control has been realized using a combined theoretical/experimental approach. Next, we will discuss progress using Si6H12 (cyclohexasilane-a liquid silane) as a precursor for solution-processed diodes and transistors. Finally, we demonstrate the ability to CAB-DW Si6H12-based precursor inks for printing Si-based semiconductors.
Keywords
aerodynamics; aerosols; atmospheric pressure; electron beam focusing; flexible electronics; printed circuit design; Si6H12; aerodynamics; aerosol flow; atmospheric pressure; collimated aerosol beam deposition; collimated aerosol beam direct-write; cyclohexasilane; electronic material; flexible electronics; focusing; liquid silane; low-temperature route; material deposition; precision linewidth control; printed actives; printed circuit; printed passives; printed transistor; silane-based precursor ink; solution-processed diodes; Aerodynamics; aerosols; focusing; liquids; printed circuits; silicon;
fLanguage
English
Journal_Title
Advanced Packaging, IEEE Transactions on
Publisher
ieee
ISSN
1521-3323
Type
jour
DOI
10.1109/TADVP.2009.2038615
Filename
5382505
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