期刊
NANO ENERGY
卷 60, 期 -, 页码 545-556出版社
ELSEVIER
DOI: 10.1016/j.nanoen.2019.03.090
关键词
Control interface; Triboelectric; Single electrode; Self-powered; Patterned grid
类别
资金
- HIFES Seed Funding grant Hybrid Integration of Flexible Power Source and Pressure Sensors at the National University of Singapore [2017-01, R-263-501-012-133]
- Singapore-Poland Joint Grant Chip-Scale MEMS Micro-Spectrometer for Monitoring Harsh Industrial Gases by Agency for Science, Technology and Research (A*STAR), Singapore [R-263-000-C91-305]
- NAWA Academic International Partnerships of Wroclaw University of Science and technology programme by Polish National Agency for Academic Exchange Programme
- Australian Research Council Future Fellowships Grant [FT130100430]
- Monash Faculty of Engineering Travel Grant
Control interfaces are important devices for connecting human with machines to achieve various manipulations. Recently, the emerging triboelectric based control interfaces exhibit great advantages in flexible wearable and battery-less applications. To further reduce the device complexity and improve the device practicability, a minimalist control interface with only one sensing electrode is developed based on sliding triboelectric mode. The developed control interface consists of connected grid metal pattern as single-electrode output for multi-directional sensing and controlling. This design provides superior advantages, including realization of multi-directional sensing and controlling using only one electrode and ultra-robust detection mechanism based on the number of the generated output peaks. Compared to the traditional triboelectric nanogenerators, this detection mechanism only depends on the number of the output peaks rather than the absolute magnitude, offering high robustness and reliability in various usage scenarios and for different users. Based on the minimalist design, two types of devices are proposed for the applications of 2D and 3D control. First, a flexible 2D-control patch with single electrode is developed to achieve in-plane 2D control. Next, through the integration of two similar patches on both sides of a card, a flexible 3D-control card is achieved to realize 3D control. In addition, the control patch and the control card are then investigated in terms of energy harvesting performance, both of which show good performance in scavenging energy from human tapping. In practical usage, these two devices are successfully demonstrated for 2D vehicle control and 3D virtual drone control, respectively. The developed flexible, self-powered and minimalist control interfaces exhibit promising potentials for diverse applications such as gaming, virtual/augmented reality, entertainment, smart home, and robotics control, etc.
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