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Kim, BongSoo
Polymer & Organic Semiconductor Lab.
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Universal Route to Impart Orthogonality to Polymer Semiconductors for Sub-Micrometer Tandem Electronics

Author(s)
Park, Han WoolChoi, Keun-YeongShin, JihyeKang, BoseokHwang, HaejungChoi, ShinyoungSong, AeranKim, JoeheeKweon, HyukminKim, SeunghanChung, Kwun-BumKim, BongSooCho, KilwonKwon, Soon-KiKim, Yun-HiKang, Moon SungLee, HojinKim, Do Hwan
Issued Date
2019-07
DOI
10.1002/adma.201901400
URI
https://scholarworks.unist.ac.kr/handle/201301/33045
Fulltext
https://onlinelibrary.wiley.com/doi/full/10.1002/adma.201901400
Citation
ADVANCED MATERIALS, v.31, no.28, pp.1901400
Abstract
A universal method that enables utilization of conventional photolithography for processing a variety of polymer semiconductors is developed. The method relies on imparting chemical and physical orthogonality to a polymer film via formation of a semi-interpenetrating diphasic polymer network with a bridged polysilsesquioxane structure, which is termed an orthogonal polymer semiconductor gel. The synthesized gel films remain tolerant to various chemical and physical etching processes involved in photolithography, thereby facilitating fabrication of high-resolution patterns of polymer semiconductors. This method is utilized for fabricating tandem electronics, including pn-complementary inverter logic devices and pixelated polymer light-emitting diodes, which require deposition of multiple polymer semiconductors through solution processes. This novel and universal method is expected to significantly influence the development of advanced polymer electronics requiring sub-micrometer tandem structures.
Publisher
WILEY-V C H VERLAG GMBH
ISSN
0935-9648
Keyword (Author)
orthogonal polymer semiconductor gelphotolithographysemi-interpenetrating diphasic polymer networksequential solution processessub-micrometer tandem electronics
Keyword
FIELD-EFFECT TRANSISTORSCHARGE-TRANSPORTHIGH-RESOLUTIONMICROSTRUCTURESAGGREGATIONTRANSPARENTCOPOLYMERDEVICES

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