Piezoelectric materials are widely used in aerospace industry as a source of alternate energy for micro or nanoscale electronics because of voltage dependent actuation ability. This phenomena is of absolute importance in cubic reconnaissance satellites as they have maximum number of piezoelectric patches integrated in structure. In this research work, PZT patches in the satellite structure absorbs the mechanical and thermal energy from external environment as well as from internal fluctuations and convert them into electrical energy. This electrical energy can be utilized on the spot or can be stored in batteries for wireless sensors. The experimental setup and electronic circuit is designed in order to mimic the real time conditions based on direct effect of piezoelectricity. The effect of energy generation with respect to fatigue mechanical loading condition is analyzed based on equivalent circuit method. A numerical simulation model based on commercial software ABAQUS Standard has been developed. The developed model has predicted the experimental outcome with less than (Formula presented.) error. The analytical results are in good agreement with experimental as well as with numerical calculations with less than (Formula presented.) error. The maximum output energy obtained in this study is 0.8 nJ.

Piezoelectric thermo electromechanical energy harvester for reconnaissance satellite structure / Elahi, Hassan; Eugeni, Marco; Gaudenzi, Paolo; Gul, Madiha; fida swati, Raees. - In: MICROSYSTEM TECHNOLOGIES. - ISSN 0946-7076. - 25:2(2019), pp. 665-672. [10.1007/s00542-018-3994-z]

Piezoelectric thermo electromechanical energy harvester for reconnaissance satellite structure

hassan elahi
;
marco eugeni;paolo gaudenzi;
2019

Abstract

Piezoelectric materials are widely used in aerospace industry as a source of alternate energy for micro or nanoscale electronics because of voltage dependent actuation ability. This phenomena is of absolute importance in cubic reconnaissance satellites as they have maximum number of piezoelectric patches integrated in structure. In this research work, PZT patches in the satellite structure absorbs the mechanical and thermal energy from external environment as well as from internal fluctuations and convert them into electrical energy. This electrical energy can be utilized on the spot or can be stored in batteries for wireless sensors. The experimental setup and electronic circuit is designed in order to mimic the real time conditions based on direct effect of piezoelectricity. The effect of energy generation with respect to fatigue mechanical loading condition is analyzed based on equivalent circuit method. A numerical simulation model based on commercial software ABAQUS Standard has been developed. The developed model has predicted the experimental outcome with less than (Formula presented.) error. The analytical results are in good agreement with experimental as well as with numerical calculations with less than (Formula presented.) error. The maximum output energy obtained in this study is 0.8 nJ.
2019
electronic, optical and magnetic materials; condensed matter physics; hardware and architecture; electrical and electronic engineering
01 Pubblicazione su rivista::01a Articolo in rivista
Piezoelectric thermo electromechanical energy harvester for reconnaissance satellite structure / Elahi, Hassan; Eugeni, Marco; Gaudenzi, Paolo; Gul, Madiha; fida swati, Raees. - In: MICROSYSTEM TECHNOLOGIES. - ISSN 0946-7076. - 25:2(2019), pp. 665-672. [10.1007/s00542-018-3994-z]
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11573/1172800
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