Investigation of a Magnetic Levitation Architecture with a Ferrite Core for Energy Harvesting

This work presents the development of a magnetic levitation system with a ferrite core, designed for electromagnetic energy harvesting from mechanical vibrations. The system consists of a fixed enamel-coated copper coil and five neodymium-iron-boron permanent magnets housed within a PVC spool. To enhance magnetic flux concentration, a manganese-zinc ferrite (Mn-Zn) ring was employed within the spool. Experimental tests were conducted at frequencies up to 20 Hz, demonstrating the device’s potential for harvesting energy from small vibrations, such as those generated by human biomechanical movements, achieving operating voltages up to 3 V. Additionally, the architecture is scalable for larger systems and allows for the integration of multiple transducers without magnetic field interference, independent of the frequency or excitation phase of each transducer.

Publication Details

Journal
RePEc: Research Papers in Economics
Published
2024-10-25
Primary Topic
Innovative Energy Harvesting Technologies
Type
article
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article

Investigation of a Magnetic Levitation Architecture with a Ferrite Core for Energy Harvesting

RePEc: Research Papers in Economics
Innovative Energy Harvesting Technologies
article

Investigation of a Magnetic Levitation Architecture with a Ferrite Core for Energy Harvesting

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Abstract

This work presents the development of a magnetic levitation system with a ferrite core, designed for electromagnetic energy harvesting from mechanical vibrations. The system consists of a fixed enamel-coated copper coil and five neodymium-iron-boron permanent magnets housed within a PVC spool. To enhance magnetic flux concentration, a manganese-zinc ferrite (Mn-Zn) ring was employed within the spool. Experimental tests were conducted at frequencies up to 20 Hz, demonstrating the device’s potential for harvesting energy from small vibrations, such as those generated by human biomechanical movements, achieving operating voltages up to 3 V. Additionally, the architecture is scalable for larger systems and allows for the integration of multiple transducers without magnetic field interference, independent of the frequency or excitation phase of each transducer.

RePEc: Research Papers in Economics
Affordable and clean energy
Openalex Percentile: Top 59%
Innovative Energy Harvesting Technologies
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Investigation of a Magnetic Levitation Architecture with a Ferrite Core for Energy Harvesting · RePEc: Research Papers in Economics (2024) | TGRS Research Map | TGRS