Modeling and Simulation for PVDF-based Pyroelectric Energy Harvester

A. K. Batra, Alak Bandyopadhyay, Ashwith K. Chilvery, Mychal Thomas


Energy harvesting technology allows the capturing of unused ambient energy such as solar, wind, thermal, strain and kinetic, energy of gas and liquid flows which is then converted into another form of usable energy. This paper focuses on the thermal-electrical energy harvesting based on pyroelectric effect. Pyroelectric materials generate a voltage, when subjected temperature variation. The pyroelectric polyvinylidene fluoride (PVDF) films were fabricated and characterized for pyroelectric and dielectric parameters. Using the foregoing parameters, the energy-harvesting capacity has been theoretically explored by capturing thermal energy available in the environment of Huntsville (pavement), Saudi Arabia (ambient) and MARS (ambient). The predicted maximum cumulative voltage by the end of a 300 hours cycle is approximately 0.13, 0.7 and 7.7 volts for Huntsville and Saudi Arabia and MARS, respectively for the PVDF based 10 cm2 pyro-elements. The results indicate that the electrical energy harvesting via pyroelectricity holds promise for powering autonomous low-duty electric devices. Furthermore, the mathematical modeling and numerical simulations can be helpful in designing of pyroelectric micro-power generators.

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Batra, A. K., Aggarwal, M. D., Edwards, M. E., & Bhalla, A. S. (2008). Present Status of Polymer: Ceramic Composites for Pyroelectric Infrared Detectors. Ferroelectrics, 366, 84-121.
Batra, A. K., Bhattacharjee, S., Chilvery, A. K., & Stephens, J. (2012). Energy Harvesting Via Pyroelectric Transducer. Sensors & Transducers Journal, 138(3), 114-121.
Batra, A. K., Bhattacharjee, S., Chilvery, A. K, Aggarwal, M. D., Edwards, M. E, & Bhalla, A. S. (2011). Simulation of Energy Harvesting from Roads via Pyroelectricity. Journal of Photonics for Energy, 1: 014001-1 -014001-12.
Batra, A. K., Corda, J. & Guggilla, P. (2009). Electrical properties of silver nanoparticles reinforced LiTaO3: P (VDF-TrFE) composite films. SPIE Proc, 7419.
Beeby, S. & White, N. (2010). Energy Harvesting for Autonomous Systems. Norwood, MA Artech House.
Birlikseven, C., Altintas E., & Durusoy H. Z. (2001). A Low-Temperature Pyroelectric Study of PVDF thick films. Journal of Material Science: Materials in Electronics, 12, 601-603.
Buchanan, R. C., & Huang, J., (1999). Pyroelectric and Sensor Properties of Ferroelectric Thin Films for Energy Conversion. Journal of the European Ceramic Society, 19, 1467-1471.
Cuadrasa, A., Gasulla, A. M., & Ferrari, V. (2010). Thermal Energy Harvesting Through Pyroelectricity. Sensors and Actuators A 158, 132-139.
Guggilla, P, Batra, A. K., & Edwards, M. E. (2009). Electrical characterization of LiTaO3: P (VDF-TrFE) Composites J. Mater. Sci. 44, 5469-4574.
Kim, H. U., Lee, W. H., Rasika Dias H.V., & Priya S. (2009). Piezoelectric microgenerator-current status and challenges. IEEE Trans Ultra. Ferro, and Freq. Control, 56(8), 1555-1568.
Khodayari A, S. Pruvost S., Sebald G. et al. (2009). Nonlinear pyroelectric energy harvesting from relaxor single crystals. IEEE Trans. Ultras. Ferro. Freq. Contr., 56, 693-699.
Navid, A., Lynch, C. S., & Pilon L. (2010). Purified and porous poly(vinylidene fluoride-trifluoroethylene) thin films for pyroelectric infrared sensing and energy harvesting. Smart. Mater. Struct. 19, 055006.
Priya, S. & Inman, D.J (2009). Energy Harvesting Technologies. New York, Springer.
Roundy S., White, P. K., & Rabaey (2004). Energy Scavenging for wireless sensor networks with special focus on vibration. Boston: Kluwer Academic Publishers.
Sebald G., Lefeuvre E., & Guyomar D. (2008). Pyroelectric Energy Conversion: Optimization Principles. IEEE Transactions Ultrasonics, Ferroelectrics, and Frequency Cont, 55, 538-551.
Wenham, S. R., Green M. A., Watt, M. E. & Corkish R (2009). Applied Photovoltaics. London: Earthscan.
Wen S., & Chung D. L. (2003). Pyroelectric Behavior of Cement-Based Materials. Cement and Concrete Research, 33, 1675-1679.
Xie J, Mane X. P., Green, C. W., et al. (2009). Performance of piezoelectric materials for pyroelectric energy harvesting. J. Intl. Mat. Systs. Struc., 0: 1177/10445389.
Zhu H., Pruvost S., Guyomar D., & Khodayari A. (2009). Thermal energy harvesting from Pb (Zn.34Nb.066)0.955Ti0.045O3 single crystals phase transitions. J. Appl. Phys. 106: 124102-7.




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