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<title>Inkjet Printed Disposable High‐Rate On‐Paper Microsupercapacitors</title>
<creator>Li, Zheng</creator>
<creator>Ruiz Fernández, Virginia</creator>
<creator>Mishukova, Viktoriia</creator>
<creator>Wan, Qiansu</creator>
<creator>Liu, Haomin</creator>
<creator>Xue, Han</creator>
<creator>Gao, Ying</creator>
<creator>Cao, Gaolong</creator>
<creator>Li, Yuanyuan</creator>
<creator>Zhuang, Xiaodong</creator>
<creator>Weissenrieder, Jonas</creator>
<creator>Cheng, Shi</creator>
<creator>Li, Jiantong</creator>
<subject>Disposable electronics</subject>
<subject>Electrochemically exfoliated graphene</subject>
<subject>Graphene quantum dots</subject>
<subject>Inkjet printing</subject>
<subject>On-paper microsupercapacitors</subject>
<subject>PEDOT:PSS</subject>
<description>On-paper microsupercapacitors (MSCs) are a key energy storage component for disposable electronics that are anticipated to essentially address the increasing global concern of electronic waste. However, nearly none of the present on-paper MSCs combine eco-friendliness with high electrochemical performance (especially the rate capacity). In this work, highly reliable conductive inks based on the ternary composite of poly(3,4-ethylenedioxythiophene): poly(styrenesulfonate) (PEDOT:PSS), graphene quantum dots and graphene are developed for scalable inkjet printing of compact (footprint area ≈ 20 mm2) disposable MSCs on commercial paper substrates. Without any post treatment, the printed patterns attain a sheet resistance as low as 4 Ω ▫−1. The metal-free all-solid-state MSCs exhibit a maximum areal capacitance > 2 mF cm−2 at a high scan rate of 1000 mV s−1, long cycle life (>95% capacitance retention after 10 000 cycles), excellent flexibility, and long service time. Remarkably, the “totally metal-free” MSC arrays are fully inkjet printed on paper substrates and also exhibit high rate performance. The life cycle assessment indicates that these printed devices have much lower eco-toxicity and global warming potential than other on-paper MSCs.</description>
<date>2025-03-11</date>
<date>2025-03-11</date>
<date>2021-10</date>
<type>info:eu-repo/semantics/article</type>
<identifier>1616-301X</identifier>
<identifier>http://hdl.handle.net/10259/10300</identifier>
<identifier>10.1002/adfm.202108773</identifier>
<identifier>1616-3028</identifier>
<language>eng</language>
<relation>Advanced Funcrional Materials. 2021, V. 32, n. 1, p. 2108773</relation>
<relation>https://doi.org/10.1002/adfm.202108773</relation>
<rights>http://creativecommons.org/licenses/by-nc-nd/4.0/</rights>
<rights>info:eu-repo/semantics/openAccess</rights>
<rights>Attribution-NonCommercial-NoDerivatives 4.0 Internacional</rights>
<publisher>Wiley</publisher>
</thesis></metadata></record></GetRecord></OAI-PMH>