A novel fluorinated organic?밿norganic (O?밒) hybrid sol?봥el based material, named FAGPTi, is successfully synthesized and applied as a gate dielectric in flexible organic thin-film transistors (OTFTs). The previously reported three-arm-shaped alkoxysilane-functionalized amphiphilic polymer yields a stable O?밒 hybrid material consisting of uniformly dispersed nanoparticles in the sol-state. Here, a fluorinated precursor is introduced into the system, making it possible to realize more stable spherical composites. This results in long-term colloidal stability (≈1.5 years) because composite growth is strongly inhibited by the presence of fluorine groups with intrinsically strong repulsive forces. Additionally, the FAGPTi film is easily deposited via thermally annealed sol?밽el reactions; the films can be successfully fabricated through the printing method, and exhibit excellent flexibility and enhanced insulating properties compared to existing materials. OTFTs with FAGPTi layers show highly stable driving characteristics under severe bending conditions (1.9% strain). Integrated logic devices are also successfully operated with these OTFTs. Additionally, it can facilely be applied to amorphous indium-gallium-zinc-oxide (a-IGZO) TFT devices other than OTFT. Therefore, this synthetic strategy can provide useful insights into the production of functional O?밒 hybrid materials, enabling the efficient fabrication of electronic materials and devices exhibiting these properties.
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J. Kim et. al, "Trends in Lightweight Kernel for Many core Based High-Performance Computing", Electronics and Telecommunications Trends. Vol. 32, No. 4, 2017, KOGL Type 4: Source Indication + Commercial Use Prohibition + Change Prohibition
J. Sim et.al, “the Fourth Industrial Revolution and ICT – IDX Strategy for leading the Fourth Industrial Revolution”, ETRI Insight, 2017, KOGL Type 4: Source Indication + Commercial Use Prohibition + Change Prohibition
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