Printable ultrathin substrates formed on a concave-convex underlayer for highly flexible membrane-type electrode stickersElectronic supplementary information (ESI) available. See DOI: 10.1039/c2sm25637a

The ability to create printable ultrathin devices and transfer printing allows 'stick and play' electronics on unusual surfaces where direct device fabrication is not possible. This research describes a systematic method for using an additional handling substrate to mechanically support an...

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Hauptverfasser: Hwang, Youngkyu, Cho, Hyun A, Kim, Suk Ho, Jang, Hun Soo, Hyun, Yujun, Chun, Jae-Yi, Park, Seong-Ju, Ko, Heung Cho
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container_issue 29
container_start_page 7598
container_title
container_volume 8
creator Hwang, Youngkyu
Cho, Hyun A
Kim, Suk Ho
Jang, Hun Soo
Hyun, Yujun
Chun, Jae-Yi
Park, Seong-Ju
Ko, Heung Cho
description The ability to create printable ultrathin devices and transfer printing allows 'stick and play' electronics on unusual surfaces where direct device fabrication is not possible. This research describes a systematic method for using an additional handling substrate to mechanically support an ultrathin substrate and printing the final device on a target surface in a deterministic way. Introducing a sacrificial layer and a concave-convex structure with optimized depth, pitch, and shape at the interface between the two substrates provides both stability in device fabrication and high-yield transfer printing in a deterministic manner. To demonstrate the efficacy of this method, we successfully transferred various sizes and layouts of patterns onto various planar and curvilinear substrates. Finally, we demonstrate highly foldable and stretchable membrane-type electrodes that can be attached onto unusual surfaces, such as paper and elastic adhesive tape. Employing concavities-convexities and a sacrificial layer underneath an ultrathin substrate fulfills the contradictory adhesion requirements for device fabrication and transfer printing.
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title Printable ultrathin substrates formed on a concave-convex underlayer for highly flexible membrane-type electrode stickersElectronic supplementary information (ESI) available. See DOI: 10.1039/c2sm25637a
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