Flexible Transparent Bifunctional Capacitive Sensors with Superior Areal Capacitance and Sensing Capability based on PEDOT:PSS/MXene/Ag Grid Hybrid Electrodes

Flexible transparent supercapacitors (FTSs) have aroused considerable attention. Nonetheless, balancing energy storage capability and transparency remains challenging. Herein, a new type of FTSs with both excellent energy storage and superior transparency is developed based on PEDOT:PSS/MXene/Ag gri...

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Veröffentlicht in:Advanced functional materials 2023-01, Vol.33 (5), p.n/a
Hauptverfasser: Cheng, Tao, Yang, Xuan‐Li, Yang, Sheng, Li, Lang, Liu, Zhong‐Ting, Qu, Jie, Meng, Chao‐Fu, Li, Xiang‐Chun, Zhang, Yi‐Zhou, Lai, Wen‐Yong
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container_issue 5
container_start_page
container_title Advanced functional materials
container_volume 33
creator Cheng, Tao
Yang, Xuan‐Li
Yang, Sheng
Li, Lang
Liu, Zhong‐Ting
Qu, Jie
Meng, Chao‐Fu
Li, Xiang‐Chun
Zhang, Yi‐Zhou
Lai, Wen‐Yong
description Flexible transparent supercapacitors (FTSs) have aroused considerable attention. Nonetheless, balancing energy storage capability and transparency remains challenging. Herein, a new type of FTSs with both excellent energy storage and superior transparency is developed based on PEDOT:PSS/MXene/Ag grid ternary hybrid electrodes. The hybrid electrodes can synergistically utilize the high optoelectronic properties of Ag grids, the excellent capacitive performance of MXenes, and the superior chemical stability of PEDOT:PSS, thus, simultaneously demonstrating excellent optoelectronic properties (T: ≈89%, Rs: ≈39 Ω sq−1), high areal specific capacitance, superior mechanical softness, and excellent anti‐oxidation capability. Due to the excellent comprehensive performances of the hybrid electrodes, the resulting FTSs exhibit both high optical transparency (≈71% and ≈60%) and large areal specific capacitance (≈3.7 and ≈12 mF cm−2) besides superior energy storage capacity (P: 200.93, E: 0.24 µWh cm−2). Notably, the FTSs show not only excellent energy storage but also exceptional sensing capability, viable for human activity recognition. This is the first time to achieve FTSs that combine high transparency, excellent energy storage and good sensing all‐in‐one, which make them stand out from conventional flexible supercapacitors and promising for next‐generation smart flexible energy storage devices. A new type of flexible transparent supercapacitors (FTSs) combining high optical transparency, excellent energy storage, and good sensing capability all‐in‐one is developed based on inkjet printed ternary hybrid electrodes of PEDOT:PSS/MXene/Ag grid. The multifunction of the resulting FTSs make them stand out from conventional flexible supercapacitors and feasible for next‐generation smart flexible energy storage devices.
doi_str_mv 10.1002/adfm.202210997
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Nonetheless, balancing energy storage capability and transparency remains challenging. Herein, a new type of FTSs with both excellent energy storage and superior transparency is developed based on PEDOT:PSS/MXene/Ag grid ternary hybrid electrodes. The hybrid electrodes can synergistically utilize the high optoelectronic properties of Ag grids, the excellent capacitive performance of MXenes, and the superior chemical stability of PEDOT:PSS, thus, simultaneously demonstrating excellent optoelectronic properties (T: ≈89%, Rs: ≈39 Ω sq−1), high areal specific capacitance, superior mechanical softness, and excellent anti‐oxidation capability. Due to the excellent comprehensive performances of the hybrid electrodes, the resulting FTSs exhibit both high optical transparency (≈71% and ≈60%) and large areal specific capacitance (≈3.7 and ≈12 mF cm−2) besides superior energy storage capacity (P: 200.93, E: 0.24 µWh cm−2). Notably, the FTSs show not only excellent energy storage but also exceptional sensing capability, viable for human activity recognition. This is the first time to achieve FTSs that combine high transparency, excellent energy storage and good sensing all‐in‐one, which make them stand out from conventional flexible supercapacitors and promising for next‐generation smart flexible energy storage devices. A new type of flexible transparent supercapacitors (FTSs) combining high optical transparency, excellent energy storage, and good sensing capability all‐in‐one is developed based on inkjet printed ternary hybrid electrodes of PEDOT:PSS/MXene/Ag grid. 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Nonetheless, balancing energy storage capability and transparency remains challenging. Herein, a new type of FTSs with both excellent energy storage and superior transparency is developed based on PEDOT:PSS/MXene/Ag grid ternary hybrid electrodes. The hybrid electrodes can synergistically utilize the high optoelectronic properties of Ag grids, the excellent capacitive performance of MXenes, and the superior chemical stability of PEDOT:PSS, thus, simultaneously demonstrating excellent optoelectronic properties (T: ≈89%, Rs: ≈39 Ω sq−1), high areal specific capacitance, superior mechanical softness, and excellent anti‐oxidation capability. Due to the excellent comprehensive performances of the hybrid electrodes, the resulting FTSs exhibit both high optical transparency (≈71% and ≈60%) and large areal specific capacitance (≈3.7 and ≈12 mF cm−2) besides superior energy storage capacity (P: 200.93, E: 0.24 µWh cm−2). Notably, the FTSs show not only excellent energy storage but also exceptional sensing capability, viable for human activity recognition. This is the first time to achieve FTSs that combine high transparency, excellent energy storage and good sensing all‐in‐one, which make them stand out from conventional flexible supercapacitors and promising for next‐generation smart flexible energy storage devices. A new type of flexible transparent supercapacitors (FTSs) combining high optical transparency, excellent energy storage, and good sensing capability all‐in‐one is developed based on inkjet printed ternary hybrid electrodes of PEDOT:PSS/MXene/Ag grid. 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source Wiley Online Library Journals Frontfile Complete
subjects Capacitance
Electrodes
Energy storage
flexible electronics
flexible energy storages
flexible transparent supercapacitors
Human activity recognition
inkjet printing
Materials science
MXenes
Optoelectronics
Oxidation
PEDOT:PSS/MXene/Ag grid hybrid electrodes
Softness
Storage capacity
Supercapacitors
title Flexible Transparent Bifunctional Capacitive Sensors with Superior Areal Capacitance and Sensing Capability based on PEDOT:PSS/MXene/Ag Grid Hybrid Electrodes
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