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Enhancing the Output Charge Density of TENG via Building Longitudinal Paths of Electrostatic Charges in the Contacting Layers

机译:通过建筑接触层中的静电电荷的纵向路径增强滕的输出电荷密度

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摘要

The surface charge density of the tribolayer is the most parameter for developing a high performance triboelectric nanogenerator (TENG). Most previous works focused on the surface structural/chemical modification. Nevertheless, the internal space of the tribolayer and its mechanism exploration were less investigated. Herein, in this work, internal-space-charge zones are built through imbedding ravines and gullies in criss-crossed gold layers in the near-surface of the tribolayer, which leads to the high output performance of TENG. As experimental results manifest, the transfer charge density of gold-PDMS TENG (G-TENG) reaches 168 mu C m(-2). Through theoretical analyses, it is determined that gold layers act as the passageways and traps of the triboelectric charges when the charges drift to the internal space of the tribomaterial. Moreover, the transport and storage process of triboelectric charges in the frictional layer are investigated comprehensively by quantum mechanics for the first time. The calculation method of the output current of TENG is proposed, and the theoretical calculation results coincide with the test results well. The results verify the application of the theoretical model and help with the construction and development of the theoretical system of TENG. Meanwhile, the relative results can be directly attained by this new theoretical model, and it is possible to make full use of the theoretical analysis to achieve a better performance for TENG. This study paves an easy and novel way for enhancing the charge density of the tribolayer by internal space construction and a new underlying theoretical model.
机译:Tribolayer的表面电荷密度是用于开发高性能摩擦纳米电磁体(Teng)的最多参数。最先前的作品专注于表面结构/化学改性。尽管如此,派分人的内部空间及其机制勘探较少。在此,在这项工作中,内部空间电荷区域通过嵌入的沟壑和横向的金层中的近侧表面中的沟渠,这导致滕的高输出性能。作为实验结果表明,金对PDMS腾(G-TENG)的转移电荷密度达到168亩C m(-2)。通过理论分析,当电荷漂移到摩擦材料的内部空间时,确定金层作为摩擦电荷的通道和陷阱。此外,摩擦层中的摩擦电荷的运输和储存过程首次由量子力学全综合理研究。提出了滕输出电流的计算方法,理论计算结果与测试结果相一致。结果验证了理论模型的应用,帮助腾腾理论体系的建设和发展。同时,可以通过这种新的理论模型直接获得相对结果,可以充分利用理论分析,以实现腾腾的更好表现。本研究铺平了一种简单而新颖的方式,通过内部空间建设和新的底层理论模型来提高Tryolayer的电荷密度。

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