School of Materials Science and Engineering, Georgia Institute of Technology, Atlanta, Georgia 30332-0245, United States of America. NanoGenerators and NanoEngineering laboratory, School of Mechanical & Industrial Engineering, University of Toronto, Toronto, ON, M5S 3G8, Canada.
Nanotechnology. 2017 May 5;28(18):185403. doi: 10.1088/1361-6528/aa6612.
Ocean waves are one of the cleanest and most abundant energy sources on earth, and wave energy has the potential for future power generation. Triboelectric nanogenerator (TENG) technology has recently been proposed as a promising technology to harvest wave energy. In this paper, a theoretical study is performed on a duck-shaped TENG wave harvester recently introduced in our work. To enhance the design of the duck-shaped TENG wave harvester, the mechanical and electrical characteristics of the harvester's overall structure, as well as its inner configuration, are analyzed, respectively, under different wave conditions, to optimize parameters such as duck radius and mass. Furthermore, a comprehensive hybrid 3D model is introduced to quantify the performance of the TENG wave harvester. Finally, the influence of different TENG parameters is validated by comparing the performance of several existing TENG wave harvesters. This study can be applied as a guideline for enhancing the performance of TENG wave energy harvesters.
海浪是地球上最清洁、最丰富的能源之一,波浪能具有未来发电的潜力。摩擦纳米发电机(TENG)技术最近被提出作为一种有前途的波浪能采集技术。本文对我们最近工作中引入的鸭型 TENG 波浪采集器进行了理论研究。为了改进鸭型 TENG 波浪采集器的设计,在不同的波浪条件下,分别对采集器的整体结构和内部结构的机械和电气特性进行了分析,以优化鸭半径和质量等参数。此外,还引入了一个综合的混合 3D 模型来量化 TENG 波浪采集器的性能。最后,通过比较几种现有 TENG 波浪采集器的性能来验证不同 TENG 参数的影响。这项研究可作为增强 TENG 波浪能采集器性能的指导方针。