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Experimental Characterization of an AC–DC Boost for Energy Harvesting Device Based on Magnetostrictive Materials
Magnetostrictive alloys hold great promise for Energy Harvesting applications due to their inherent durability. However, their implementation often results in usable voltage ranges that fall significantly below common electronic standards like 1.6, 3.3, and 5 volts. Consequently, the utilization of...
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Published in: | Electricity (Basel, Switzerland) Switzerland), 2024-03, Vol.5 (1), p.24-35 |
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container_end_page | 35 |
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creator | Clemente, Carmine Stefano Davino, Daniele Iannone, Immacolato Loschiavo, Vincenzo Paolo |
description | Magnetostrictive alloys hold great promise for Energy Harvesting applications due to their inherent durability. However, their implementation often results in usable voltage ranges that fall significantly below common electronic standards like 1.6, 3.3, and 5 volts. Consequently, the utilization of electronic circuits becomes essential to amplify the voltage and enhance energy conversion efficiency. Over the past few decades, numerous conversion techniques have been devised for other intelligent materials, such as piezoelectrics, some of which have even made their way into commercial products. Surprisingly, there is a dearth of specialized techniques, if not a complete absence, tailored to magnetostrictive devices. Among potential solutions, a suitable AC–DC Boost converter stands out as a highly promising candidate for addressing this challenge, but this solution has never been fully characterized. Then, this paper presents thorough experimental validations of such a converter, driven by a real-time Arduino board equipped to measure source time periods and operate under various conditions. We present several cases demonstrating the circuit’s substantial potential for enhancing energy harvesting from magnetostrictive materials. |
doi_str_mv | 10.3390/electricity5010002 |
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subjects | AC–DC boost Arduino Design Efficiency Energy energy harvesting magnetostrictive materials |
title | Experimental Characterization of an AC–DC Boost for Energy Harvesting Device Based on Magnetostrictive Materials |
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