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Liquid-Gated Transistors Based on Reduced Graphene Oxide for Flexible and Wearable Electronics

机译:基于可还原氧化石墨烯的液控晶体管,用于可穿戴电子设备

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摘要

Graphene is regarded as the ultimate material for future flexible, high-performance, and wearable electronics. Herein, a novel, robust, all-green, highly reliable (yield >= 99%), and upscalable technology is reported for wearable applications comprising reduced graphene oxide (rGO) as the electroactive component in liquid-gated transistors (LGTs). rGO is a formidable material for future flexible and wearable applications due to its easy processability, excellent surface reactivity, and large-area coverage. A novel protocol is established toward the high-yield fabrication of flexible rGO LGTs combining high robustness (>1.5 h of continuous operation) with state-of-the-art performances, being similar to those of their rigid counterparts operated under liquid gating, including field-effect mobility of approximate to 10(-1) cm(2) V-1 s(-1) and transconductance of approximate to 25 mu S. Permeable membranes have been proven crucial to operate flexible LGTs under mechanical stress with reduced amounts of solution (<20 mu L). Our rGO LGTs are operated in artificial sweat exploiting two different layouts based on lateral-flow paper fluidics. These approaches pave the road toward future real-time tracking of perspiration via a simple and cost-effective approach. The reported findings contribute to the robust and scalable production of novel graphene-based flexible devices, whose features fulfill the requirements of wearable electronics.
机译:石墨烯被认为是未来柔性,高性能和可穿戴电子产品的最终材料。在本文中,报告了一种新颖,坚固,全绿色,高度可靠(产率> = 99%)和可升级的技术,用于可穿戴应用,其中包括氧化石墨烯(rGO)作为液态门控晶体管(LGT)中的电活性成分。 rGO具有易加工性,出色的表面反应性和大面积覆盖能力,是未来柔性和可穿戴应用的强大材料。建立了一种高产量制造柔性rGO LGT的新协议,该协议结合了高鲁棒性(> 1.5 h的连续运行)和最先进的性能,类似于其在液体浇口下运行的刚性对应产品,包括场效应迁移率大约为10(-1)cm(2)V-1 s(-1),跨导大约为25μS。事实证明,渗透膜对于在机械应力下以较低的LPS量操作柔性LGT至关重要。溶液(<20μL)。我们的rGO LGT在人工汗液中运行,利用基于侧向流动纸流的两种不同布局。这些方法通过一种简单且经济高效的方法,为将来实时跟踪汗水铺平了道路。报告的发现有助于稳定,可扩展地生产基于石墨烯的新型柔性器件,其功能满足可穿戴电子设备的要求。

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