Truly form-factor-free industrially scalable system integration for electronic textile architectures with multifunctional fiber devices.
Sanghyo LeeHyung Woo ChoiCátia Lopes FigueiredoDong-Wook ShinFrancesc Mañosa MoncunillKay UllrichStefano SinopoliPetar JovančićJiajie YangHanleem LeeMartin EisenreichUmberto EmanueleSalvatore NicoteraAngelo SantosRui IgrejaAlessio MarraniRoberto MomentèJoão GomesSung-Min JungSoo Deok HanSang Yun BangShijie ZhanWilliam Harden-ChatersYo-Han SuhXiang-Bing FanTae Hoon LeeJeong-Wan JoYoonwoo KimAntonino CostantinoVirginia Garcia CandelNelson DurãesSebastian MeyerChul-Hong KimMarcel LucassenAhmed NejimDavid JiménezMartijn SpringerYoung-Woo LeeGeon-Hyoung AnYoungjin ChoiJung Inn SohnSeungNam ChaManish ChhowallaGehan A J AmaratungaLuigi Giuseppe OcchipintiPedro BarquinhaElvira FortunatoRodrigo MartinsJong Min KimPublished in: Science advances (2023)
An integrated textile electronic system is reported here, enabling a truly free form factor system via textile manufacturing integration of fiber-based electronic components. Intelligent and smart systems require freedom of form factor, unrestricted design, and unlimited scale. Initial attempts to develop conductive fibers and textile electronics failed to achieve reliable integration and performance required for industrial-scale manufacturing of technical textiles by standard weaving technologies. Here, we present a textile electronic system with functional one-dimensional devices, including fiber photodetectors (as an input device), fiber supercapacitors (as an energy storage device), fiber field-effect transistors (as an electronic driving device), and fiber quantum dot light-emitting diodes (as an output device). As a proof of concept applicable to smart homes, a textile electronic system composed of multiple functional fiber components is demonstrated, enabling luminance modulation and letter indication depending on sunlight intensity.