Boosting piezoelectric output performance of composite flexible piezoelectric nanogenerators via incorporation of MXene

Improving the charge conduction ability of piezoelectric fibers can achieve high output performance of wearable piezoelectric nanogenerators (PENGs). In this paper, a 2D conductive carbon material, MXene, was added to the nanofiber film to obtain BT@F/MXene/PVDF PENG. MXene possess good electrical conductivity that can enhance the local electric field of piezoelectric fibers during the electrospinning process. This led to the enhanced piezoelectric properties of the BT@F/MXene/PVDF piezoelectric fibers. The β phase content and d 33 value of the prepared BT@F/MXene/PVDF piezoelectric fibers reached up to 95% and 48.7 ± 3 pC/N, respectively. Therefore, the electrical output performance of the prepared BT@F/MXene/PVDF PENG was significantly improved. The output voltage of the BT@F/MXene/PVDF PENG was measured to be 4.9 V, which was about 2 times higher than of the BT@F/PVDF PENG. We further analyzed the mechanism by which MXene improved the electrical output performance of PENG. Furthermore, we compared the 2D MXene with conductive carbon materials of other dimensions (0D carbon black and 1D CNT), which revealed that the BT@F/MXene/PVDF PENG exhibited the highest piezoelectric output performance. Thus, a PENG exhibiting high piezoelectric output was developed in this work through the synergistic enhancement effect of BT@F nanoparticles and 2D MXene. This device is suitable for various applications, including mechanical energy harvesting, motion monitoring, and power supply equipment. • MXene is used as 2D carbon material to enhance the piezoelectric properties of MXene/F@BT/PVDF composite PENG. • The 2D MXene was compared with conductive carbon materials of other dimensions (0D carbon black and 1D CNTs), and to explore the mechanism of MXene enhancing composite PENG. • The MXene/F@BT/PVDF composite PENG was sensitive to sense human motions, demonstrating its potential applications in wearable devices and sports monitoring.

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Publication Details

Journal
Journal of Science Advanced Materials and Devices
Published
2025-10-18
DOI
https://doi.org/10.1016/j.jsamd.2025.101024
Primary Topic
Advanced Sensor and Energy Harvesting Materials
Type
article
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article

Boosting piezoelectric output performance of composite flexible piezoelectric nanogenerators via incorporation of MXene

Zhirong Zheng, S.M. Wang, Li Sun, Feng Mao et al.
Journal of Science Advanced Materials and Devices
Advanced Sensor and Energy Harvesting Materials
article

Boosting piezoelectric output performance of composite flexible piezoelectric nanogenerators via incorporation of MXene

Zhirong Zheng, S.M. Wang, Li Sun, Feng Mao, Jie Feng, Minghua Wu, Guang Jin
article en

Abstract

Improving the charge conduction ability of piezoelectric fibers can achieve high output performance of wearable piezoelectric nanogenerators (PENGs). In this paper, a 2D conductive carbon material, MXene, was added to the nanofiber film to obtain BT@F/MXene/PVDF PENG. MXene possess good electrical conductivity that can enhance the local electric field of piezoelectric fibers during the electrospinning process. This led to the enhanced piezoelectric properties of the BT@F/MXene/PVDF piezoelectric fibers. The β phase content and d 33 value of the prepared BT@F/MXene/PVDF piezoelectric fibers reached up to 95% and 48.7 ± 3 pC/N, respectively. Therefore, the electrical output performance of the prepared BT@F/MXene/PVDF PENG was significantly improved. The output voltage of the BT@F/MXene/PVDF PENG was measured to be 4.9 V, which was about 2 times higher than of the BT@F/PVDF PENG. We further analyzed the mechanism by which MXene improved the electrical output performance of PENG. Furthermore, we compared the 2D MXene with conductive carbon materials of other dimensions (0D carbon black and 1D CNT), which revealed that the BT@F/MXene/PVDF PENG exhibited the highest piezoelectric output performance. Thus, a PENG exhibiting high piezoelectric output was developed in this work through the synergistic enhancement effect of BT@F nanoparticles and 2D MXene. This device is suitable for various applications, including mechanical energy harvesting, motion monitoring, and power supply equipment. • MXene is used as 2D carbon material to enhance the piezoelectric properties of MXene/F@BT/PVDF composite PENG. • The 2D MXene was compared with conductive carbon materials of other dimensions (0D carbon black and 1D CNTs), and to explore the mechanism of MXene enhancing composite PENG. • The MXene/F@BT/PVDF composite PENG was sensitive to sense human motions, demonstrating its potential applications in wearable devices and sports monitoring.

Journal of Science Advanced Materials and DevicesVol. 10(4)
Zhejiang Sci-Tech University (CN), Zhejiang Pharmaceutical College (CN), Zhejiang Fashion Institute of Technology (CN), Zhejiang Institute of Modern Textile Industry (CN), Southeast University (CN)
Openalex Percentile: Top 71%
Advanced Sensor and Energy Harvesting Materials
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