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Operation of a low-temperature differential heat engine for power generation via hybrid nanogenerators

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Listed:
  • Zeeshan,
  • Panigrahi, Basanta Kumar
  • Ahmed, Rahate
  • Mehmood, Muhammad Uzair
  • Park, Jin Chul
  • Kim, Yeongmin
  • Chun, Wongee

Abstract

This work aims for the exploitation of low-grade thermal energy (<100 °C) in conjunction with the operation of nanogenerators run by a highly responsive low-temperature differential (LTD) heat engine. Two different types of nanogenerators were fabricated and tested in four different schemes: triboelectric in non-contact sliding mode (TENG), piezoelectric in contact-separation mode (PENG), triboelectric in contact-separation mode (TENG-2), and coupled triboelectric and piezoelectric in contact-separation mode (TENG-PENG). A series of tests were performed in generating power from the coupled action of triboelectric and piezoelectric nanogenerators with the operation of a LTD Stirling engine to harness low-grade thermal energy. This stands out as compared to previous studies from the perspective of operating two different types of nanogenerators in two different modes at the same time and the exploitation of low-grade thermal energy rather than the ambient mechanical energy, which is witnessed in most accomplishments in the relevant area. Running the triboelectric nanogenerator (non-contact sliding mode) with a small LTD heat engine (MM-7 Stirling engine) delivered a maximum output voltage of 35 V for a temperature difference of 73.2 °C. Meanwhile, the piezoelectric, triboelectric, and hybridized triboelectric-piezoelectric (contact-separation mode) nanogenerator produced output voltages of 4 V, 20.1 V, and 40 V, respectively. A maximum combined voltage of 74 V was also measured when the output of the triboelectric generator in noncontact sliding mode was combined with the hybrid (triboelectric-piezoelectric) nanogenerator operating in contact-separation mode. Operating the nanogenerators in conjunction with an electromagnetic generator (EMG) was also tested as appropriate, which clearly demonstrates the potential of their application in a hybrid manner if needed.

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  • Zeeshan, & Panigrahi, Basanta Kumar & Ahmed, Rahate & Mehmood, Muhammad Uzair & Park, Jin Chul & Kim, Yeongmin & Chun, Wongee, 2021. "Operation of a low-temperature differential heat engine for power generation via hybrid nanogenerators," Applied Energy, Elsevier, vol. 285(C).
    • Handle: RePEc:eee:appene:v:285:y:2021:i:c:s0306261920317591
    DOI: 10.1016/j.apenergy.2020.116385
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    References listed on IDEAS

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    Cited by:

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    2. Yongsheng Zhu & Fengxin Sun & Changjun Jia & Chaorui Huang & Kuo Wang & Ying Li & Liping Chou & Yupeng Mao, 2022. "A 3D Printing Triboelectric Sensor for Gait Analysis and Virtual Control Based on Human–Computer Interaction and the Internet of Things," Sustainability, MDPI, vol. 14(17), pages 1-12, August.
    3. Hu, Yanqiang & Wang, Xiaoli & Qin, Yechen & Li, Zhihao & Wang, Chenfei & Wu, Heng, 2022. "A robust hybrid generator for harvesting vehicle suspension vibration energy from random road excitation," Applied Energy, Elsevier, vol. 309(C).
    4. Lallart, Mickaël & Yan, Linjuan & Miki, Hiroyuki & Sebald, Gaël & Diguet, Gildas & Ohtsuka, Makoto & Kohl, Manfred, 2021. "Heusler alloy-based heat engine using pyroelectric conversion for small-scale thermal energy harvesting," Applied Energy, Elsevier, vol. 288(C).
    5. Kınas, Zeynep & Karabiber, Abdulkerim & Yar, Adem & Ozen, Abdurrahman & Ozel, Faruk & Ersöz, Mustafa & Okbaz, Abdulkerim, 2022. "High-performance triboelectric nanogenerator based on carbon nanomaterials functionalized polyacrylonitrile nanofibers," Energy, Elsevier, vol. 239(PD).
    6. Jonathan Hey & Maheswar Repaka & Tao Li & Jun Liang Tan, 2022. "Design Optimization of a Rotary Thermomagnetic Motor for More Efficient Heat Energy Harvesting," Energies, MDPI, vol. 15(17), pages 1-22, August.

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