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Enhancement of performance of triboelectric generators by introduction of micro- and nano- structures on triboelectric films

机译:通过在摩擦电影上引入微型和纳米结构的摩擦发电机性能的提高

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摘要

Wearable or portable electronic devices are ubiquitous because those enrich our life considering comfortability, efficiency and healthcare. However, those devices are nothing but accessories without electric power. Exchanging or recharging batteries are not always reachable for the devices. Energy harvesting systems which harvest energy from human motions are a good alternative or assist for batteries to secure electric power. Among other energy harvesters, a triboelectric generator (TEG) has attracted much interest with respect to its simplicity and lightweight. Many works have been done to enhance performance of TEGs to apply them for practical uses. Among them, introduction of structures on surface is a rational approach because triboelectricity is a contact electrification. In this review, works of enhancement of TEG's output performance are highlighted with respect to structural modification on the surface of triboelectric films. Molding or imprinting straightforwardly introduces micro-, nano-, or hierarchical structures on triboelectric surfaces and the TEG with a film of pyramidal structures exhibited up to 800% increase in the output compared with flat ones. Porous structures with pores on and inside polymeric films also showed up to 800% increase in the output. And TEGs based on nano-fibers with hierarchical structures on them showed up to around 2000% improvement in electrical outputs.
机译:可穿戴或便携式电子设备普遍存在,因为那些考虑到我们的生活,考虑到舒适,效率和医疗保健。但是,这些设备只不过是没有电力的配件。交换或充电电池并不总是可用于设备。能量收集系统从人类运动中收获能量是一种良好的替代或有助于保护电力的电池。在其他能量收割机中,摩擦发电机(TEG)对其简单性和轻质吸引了很多兴趣。已经完成了许多作品来提高TEGS的性能,以应用于实际用途。其中,在表面上引入结构是一种合理的方法,因为摩擦电性是接触电气化。在本综述中,在摩擦电影表面上的结构修改方面突出了TEG的输出性能的增强作品。成型或印迹直接引入摩擦电表面上的微型,纳米或分级结构,并且与锥形结构的膜膜的TEG呈现出高达800%的输出增加,与平板相比。孔隙和内部聚合物薄膜的多孔结构也显示出输出增加800%。基于纳米纤维的TEGS,它们上的分层结构显示出高达2000%的电输出改善。

著录项

  • 来源
    《Journal of materials science》 |2021年第20期|24661-24680|共20页
  • 作者单位

    Nano Research Center Baku State University 23 Akademik Zahid Khalilov Street AZ1148 Baku Azerbaijan;

    Nano Research Center Baku State University 23 Akademik Zahid Khalilov Street AZ1148 Baku Azerbaijan;

    Nano Research Center Baku State University 23 Akademik Zahid Khalilov Street AZ1148 Baku Azerbaijan;

  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);美国《生物学医学文摘》(MEDLINE);
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
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