Design of piezoelectric nanogenerator based on BiFeO3/epoxy resin with potential application for wearable electronic devices

Growing demand for electric energy in newly developed electronic systems causes increasing interest in research on piezoelectric nanogenerators (PENGs). Design and fabrication of such devices is challenging, considering cost of materials used in their construction. This is the main reason why intens...

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Veröffentlicht in:Journal of applied polymer science 2024-02, Vol.141 (6), p.n/a
Hauptverfasser: Godzierz, Marcin, Masiuchok, Olha, Talaniuk, Viktoriia, Kurtyka, Klaudia, Olszowska, Karolina, Kobyliukh, Anastasiia, Janeczek, Henryk, Pusz, Sławomira, Głuchowski, Paweł, Kujawa, Daniela, Toroń, Bartłomiej, Szperlich, Piotr, Olesik, Piotr, Smoleń, Jakub, Kozioł, Mateusz, Szeluga, Urszula
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container_issue 6
container_start_page
container_title Journal of applied polymer science
container_volume 141
creator Godzierz, Marcin
Masiuchok, Olha
Talaniuk, Viktoriia
Kurtyka, Klaudia
Olszowska, Karolina
Kobyliukh, Anastasiia
Janeczek, Henryk
Pusz, Sławomira
Głuchowski, Paweł
Kujawa, Daniela
Toroń, Bartłomiej
Szperlich, Piotr
Olesik, Piotr
Smoleń, Jakub
Kozioł, Mateusz
Szeluga, Urszula
description Growing demand for electric energy in newly developed electronic systems causes increasing interest in research on piezoelectric nanogenerators (PENGs). Design and fabrication of such devices is challenging, considering cost of materials used in their construction. This is the main reason why intensive research has begun on 0‐3 composites with piezoelectric properties. One of the most promising constituent materials for composites fabrication are polymers, due to their low cost and easy processing. Herein, we present fabricated wearable PENG with good impact and vibration energy conversion properties. Correlation between matrix stiffness and piezoelectric properties of 0‐3 type composite is proposed. It was found that composite with 10 wt.% of BiFeO3 particles exhibits power output density for vibrations, finger tapping, and air stream pressure P = 11.12 nW cm−3, P = 4.83 μW cm−3, and P = 769.2 μW cm−3, respectively. Decrease in stiffness of epoxy matrix results at least in two‐times lower power output density for this same PENG. The obtained results demonstrate that the fabricated BFO/epoxy composites show the wide applicability and potential to be integrated with other functional devices, for example, as a part of wearable devices in smart shoes. Scheme of fabrication BiFeO3/epoxy resin‐based PENG and its following responses for various excitation methods.
doi_str_mv 10.1002/app.54932
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Design and fabrication of such devices is challenging, considering cost of materials used in their construction. This is the main reason why intensive research has begun on 0‐3 composites with piezoelectric properties. One of the most promising constituent materials for composites fabrication are polymers, due to their low cost and easy processing. Herein, we present fabricated wearable PENG with good impact and vibration energy conversion properties. Correlation between matrix stiffness and piezoelectric properties of 0‐3 type composite is proposed. It was found that composite with 10 wt.% of BiFeO3 particles exhibits power output density for vibrations, finger tapping, and air stream pressure P = 11.12 nW cm−3, P = 4.83 μW cm−3, and P = 769.2 μW cm−3, respectively. Decrease in stiffness of epoxy matrix results at least in two‐times lower power output density for this same PENG. The obtained results demonstrate that the fabricated BFO/epoxy composites show the wide applicability and potential to be integrated with other functional devices, for example, as a part of wearable devices in smart shoes. 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Design and fabrication of such devices is challenging, considering cost of materials used in their construction. This is the main reason why intensive research has begun on 0‐3 composites with piezoelectric properties. One of the most promising constituent materials for composites fabrication are polymers, due to their low cost and easy processing. Herein, we present fabricated wearable PENG with good impact and vibration energy conversion properties. Correlation between matrix stiffness and piezoelectric properties of 0‐3 type composite is proposed. It was found that composite with 10 wt.% of BiFeO3 particles exhibits power output density for vibrations, finger tapping, and air stream pressure P = 11.12 nW cm−3, P = 4.83 μW cm−3, and P = 769.2 μW cm−3, respectively. Decrease in stiffness of epoxy matrix results at least in two‐times lower power output density for this same PENG. The obtained results demonstrate that the fabricated BFO/epoxy composites show the wide applicability and potential to be integrated with other functional devices, for example, as a part of wearable devices in smart shoes. 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source Wiley Online Library Journals Frontfile Complete
subjects BiFeO3 particles
Composite fabrication
Density
Electronic systems
Energy conversion
Epoxy resins
Footwear
Nanogenerators
Particulate composites
piezoelectric nanogenerator
Piezoelectricity
polymer matrix composite
Stiffness
Wearable technology
x‐ray diffraction
title Design of piezoelectric nanogenerator based on BiFeO3/epoxy resin with potential application for wearable electronic devices
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