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Effect of cilia microstructure and ion injection upon single-electrode triboelectric nanogenerator for effective energy harvesting

Title
Effect of cilia microstructure and ion injection upon single-electrode triboelectric nanogenerator for effective energy harvesting
Author(s)
Seo, JungyeunHajra, SugatoSahu, ManishaKim, Hoe Joon
Issued Date
2021-12
Citation
Materials Letters, v.304, pp.130674
Type
Article
Author Keywords
CiliaEnergy HarvestingIon InjectionMicrostructureTriboelectric
Keywords
SiliconesSurface roughnessTriboelectricityCiliumEffective energyElectrical energyEnergyIon injectionMechanical energiesNanogeneratorsPerformanceSingle electrodesTriboelectricComposite filmsElectric rectifiersElectrodesIonsMicrochannelsMicrostructureOpen circuit voltage
ISSN
0167-577X
Abstract
Triboelectric nanogenerators (TENG) can convert the waste mechanical energy into useful electrical energy and act as a sustainable power source for micro/nanoelectronics. The utilization of advanced surface designs and materials compositions can further enhance the performance of TENGs. A single-electrode mode TENG with cilia microstructures (C-TENG, abbreviated further) was fabricated from polydimethylsiloxane-carbonyl iron (PDMS-Fe) composite by using a simple and fast magnetic field-guided method and its energy harvesting performance was evaluated. The structures, electrical properties, and surface roughness were compared between the flat and cilia-formed PDMS-Fe composites. The single-electrode mode TENG based on PDMS-Fe 10 wt% gives an open-circuit voltage of 70 V, the peak to peak current output of 250nA, and the power density of 2.75 μW/cm2 at 30 MΩ. Further, the ion injection was applied to the PDMS-Fe 10 wt% composite films using an antistatic gun, and it doubles the voltage output of the device. C-TENG can convert biomechanical energy (i.e. wind blowing and finger tapping) into an electrical output. In addition, the powering of a calculator was showed by charging a commercial capacitor using a bridge rectifier circuit. © 2021 Elsevier B.V.
URI
http://hdl.handle.net/20.500.11750/15542
DOI
10.1016/j.matlet.2021.130674
Publisher
Elsevier
Related Researcher
  • 김회준 Kim, Hoe Joon
  • Research Interests MEMS/NEMS; Micro/Nano Sensors; Piezoelectric Devices; Nanomaterials; Heat Transfer; Atomic Force Microscope
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Department of Robotics and Mechatronics Engineering Nano Materials and Devices Lab 1. Journal Articles

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