Polymer-coated compliant receivers for intact laser-induced forward transfer of thin films: experimental results and modelling
Polymer-coated compliant receivers for intact laser-induced forward transfer of thin films: experimental results and modelling
In this study, we investigate both experimentally and numerically laser-induced forward transfer (LIFT) of thin films to determine the role of a thin polymer layer coating the receiver with the aim of modifying the rate of deceleration and reduction of material stress preventing intact material transfer. A numerical model of the impact phase during LIFT shows that such a layer reduces the modelled stress. The evolution of stress within the transferred deposit and the substrate as a function of the thickness of the polymer layer, the transfer velocity and the elastic properties of the polymer are evaluated. The functionality of the polymer layer is verified experimentally by LIFT printing intact 1µm-thick bismuth telluride films and polymeric light-emitting diode pads onto a layer of 12µm-thick polydimethylsiloxane and 50-nm-thick poly(3,4-ethylenedioxythiophene) blended with poly(styrenesulfonate) (PEDOT:PSS), respectively. Furthermore, it is demonstrated experimentally that the introduction of such a compliant layer improves adhesion between the deposit and its substrate.
1939-1950
Feinäugle, Matthias
5b631cb4-197f-49db-ab27-352cad7ff656
Horak, Peter
520489b5-ccc7-4d29-bb30-c1e36436ea03
Sones, Collin L.
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Lippert, Thomas
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Eason, Rob W.
e38684c3-d18c-41b9-a4aa-def67283b020
2014
Feinäugle, Matthias
5b631cb4-197f-49db-ab27-352cad7ff656
Horak, Peter
520489b5-ccc7-4d29-bb30-c1e36436ea03
Sones, Collin L.
9de9d8ee-d394-46a5-80b7-e341c0eed0a8
Lippert, Thomas
33b81741-90df-48d6-bf3a-87b9231f4418
Eason, Rob W.
e38684c3-d18c-41b9-a4aa-def67283b020
Feinäugle, Matthias, Horak, Peter, Sones, Collin L., Lippert, Thomas and Eason, Rob W.
(2014)
Polymer-coated compliant receivers for intact laser-induced forward transfer of thin films: experimental results and modelling.
Applied Physics A, 116 (4), .
(doi:10.1007/s00339-014-8360-0).
Abstract
In this study, we investigate both experimentally and numerically laser-induced forward transfer (LIFT) of thin films to determine the role of a thin polymer layer coating the receiver with the aim of modifying the rate of deceleration and reduction of material stress preventing intact material transfer. A numerical model of the impact phase during LIFT shows that such a layer reduces the modelled stress. The evolution of stress within the transferred deposit and the substrate as a function of the thickness of the polymer layer, the transfer velocity and the elastic properties of the polymer are evaluated. The functionality of the polymer layer is verified experimentally by LIFT printing intact 1µm-thick bismuth telluride films and polymeric light-emitting diode pads onto a layer of 12µm-thick polydimethylsiloxane and 50-nm-thick poly(3,4-ethylenedioxythiophene) blended with poly(styrenesulfonate) (PEDOT:PSS), respectively. Furthermore, it is demonstrated experimentally that the introduction of such a compliant layer improves adhesion between the deposit and its substrate.
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Published date: 2014
Organisations:
Optoelectronics Research Centre
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Local EPrints ID: 364171
URI: http://eprints.soton.ac.uk/id/eprint/364171
ISSN: 0947-8396
PURE UUID: 251cfc55-7a8f-4418-84ba-febfc501a816
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Date deposited: 08 Apr 2014 09:22
Last modified: 15 Mar 2024 03:13
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Contributors
Author:
Matthias Feinäugle
Author:
Peter Horak
Author:
Collin L. Sones
Author:
Thomas Lippert
Author:
Rob W. Eason
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