Evaluating the power generation capability of devices utilizing piezoelectric materials and the resonance problem

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    Hanoi University of Mining and Geology, Hanoi, Vietnam

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  • Received: 1st-Nov-2023
  • Revised: 21st-Jan-2024
  • Accepted: 29th-Jan-2024
  • Online: 1st-Feb-2024
Pages: 37 - 46
Views: 1489
Downloads: 11
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Abstract:

This paper presents a sophisticated device leveraging piezoelectric materials to seamlessly convert mechanical energy into electricity. This innovation is especially pertinent in meeting the escalating power requirements of smart devices in the dynamic of Industry 4.0. Piezoelectric materials capitalize on the piezoelectric effect, manifesting electricity generation as an external force that induces polarization within the crystal lattice, leading to the accumulation of oppositely charged elements. These specialized materials are affixed to a cantilever beam, fostering consistent oscillations that facilitate a continuous charge flow and, consequently, the generation of a reliable electric current. The oscillations of the cantilever beam embody a fusion of diverse mode shapes, each characterized by distinctive natural frequencies. The resonance phenomenon comes into play when external forces synchronize with these frequencies, thereby inducing maximum stress on the material block. Simultaneously, the voltage produced in the piezoelectric material aligns proportionally with the internal stress, resulting in an augmented power output as the amplitude of external forces increases. The efficacy of the device in power generation is contingent upon two pivotal factors: the resonance frequency of external forces, determined by resonance conditions, and the maximum amplitude, regulated by durability considerations. Although the electrical output may not be voluminous, the device’s unique advantages arising from the inherent properties of the materials and the piezoelectric effect underscore its substantial potential in addressing the intricacies of practical energy challenges.

How to Cite
Doan, L.Cong, Doan, G.Van and Le, T.Hong Thi 2024. Evaluating the power generation capability of devices utilizing piezoelectric materials and the resonance problem (in Vietnamese). Journal of Mining and Earth Sciences. 65, 1 (Feb, 2024), 37-46. DOI:https://doi.org/10.46326/JMES.2024.65(1).04.
References

Abraham, K. M. (2015). Prospects and limits of energy storage in batteries. The journal of physical chemistry letters, 6(5), 830-844.

Ali, F., Raza, W., Li, X., Gul, H., and Kim, K. H. (2019). Piezoelectric energy harvesters for biomedical applications. Nano Energy, 57, 879-902. https: //doi.org/https://doi.org/10.1016/j.nanoen.2019.01.012

Banakh, L., and Kempner, M. (2010). Vibrations of mechanical systems with regular structure. Springer Science and Business Media.

Beléndez, T., Neipp, C., and Beléndez, A. (2002). Large and small deflections of a cantilever beam. European journal of physics, 23(3), 371.

Dineva, P., Gross, D., Müller, R., Rangelov, T., Dineva, P., Gross, D., . . . Rangelov, T. (2014). Piezoelectric Cracked Finite Solids Under Time-Harmonic Loading. Dynamic Fracture of Piezoelectric Materials: Solution of Time-Harmonic Problems via BIEM, 105-116.

Ericka, M., Vasic, D., Costa, F., Poulin, G., and Tliba, S. (2005). Energy harvesting from vibration using a piezoelectric membrane. In Journal de Physique IV (Proceedings), 128, 187-193. EDP sciences.

Gallo, C. A., Tofoli, F., Rade, D., and Steffen, J. V. (2012). Piezoelectric actuators applied to neutralize mechanical vibrations. Journal of Vibration and Control, 18(11), 1650-1660. https://doi.org/10.1177/1077546311422549

Greenberg, B. A., Ivanov, M. A., Pilyugin, V. P., Pushkin, M. S., Tolmachev, T. P., and Patselov, A. M. (2021). Silicon Oxygen Quartz Tetrahedra and Consolidation Processes during High-Pressure Torsion. Russian Metallurgy (Metally), 2021(4), 449-453. https://doi.org/ 10.1134/S003602952104011X.

Kabir, E., Kumar, P., Kumar, S., Adelodun, A. A., Kim, K.-H. J. R., and Reviews, S. E. (2018). Solar energy: Potential and future prospects. Renewable and Sustainable Energy Reviews, 82, 894-900.

Khennane, A. (2013). Introduction to finite element analysis using MATLAB® and Abaqus. CRC Press.

Landa, P. S., and McClintock, P. V. (2000). Vibrational resonance. Journal of Physics A: Mathematical and general, 33(45), L433.

Repetto, C. E., Roatta, A., and Welti, R. J. (2012). Forced vibrations of a cantilever beam. European Journal of Physics, 33(5), 1187. https://doi.org/10.1088/0143-0807/33/5/ 1187.

Roundy, S., Wright, P. K., and Rabaey, J. (2003). A study of low level vibrations as a power source for wireless sensor nodes. Computer communications, 26(11), 1131-1144.

Schwab, K. (2017). The Fourth Industrial Revolution. Currency. https://books.google. com.vn/books?id=ST_FDAAAQBAJ.

Sheeraz, M. A., Butt, Z., Khan, A. M., Mehmood, S., Ali, A., Azeem, M., ... and Imtiaz, T. (2019). Design and optimization of piezoelectric transducer (PZT-5H stack). Journal of Electronic Materials, 48, 6487-6502.

Wikipedia. Lead_zirconate_titanate. https://en. wikipedia.org/wiki/Lead_zirconate_titanate.

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