This project aims to create a Piezoelectric-based Platform for Energy Harvesting, employing a rectangular tile structure. The platform consists of two layers of piezoelectric sensors arranged in a 10 × 10 matrix, each row interconnected in series and parallel configurations. The top layer serves as the contact platform for external forces, such as footsteps, while the layers are linked by springs to facilitate controlled pressure application, allowing efficient energy generation through piezoelectric effects. To optimize energy output, a rectifier ensures regulated DC output, and capacitors are integrated for energy storage. Experimental results demonstrate the platform’s efficacy in harnessing energy from applied pressure, where the system is designed to recoil using integrated springs. This innovative approach offers a scalable, sustainable, and efficient solution for energy harvesting, with potential applications in powering low-energy electronic devices. The paper presents a practical implementation of piezoelectric energy harvesting technology, highlighting its promise for sustainable energy practices.

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A Piezoelectric-Based Platform for Energy Harvesting

  • Siddharth Bhorge,
  • Dhruvesh Kamble,
  • Santosh Kandhare,
  • Kapil Sangameshwar

摘要

This project aims to create a Piezoelectric-based Platform for Energy Harvesting, employing a rectangular tile structure. The platform consists of two layers of piezoelectric sensors arranged in a 10 × 10 matrix, each row interconnected in series and parallel configurations. The top layer serves as the contact platform for external forces, such as footsteps, while the layers are linked by springs to facilitate controlled pressure application, allowing efficient energy generation through piezoelectric effects. To optimize energy output, a rectifier ensures regulated DC output, and capacitors are integrated for energy storage. Experimental results demonstrate the platform’s efficacy in harnessing energy from applied pressure, where the system is designed to recoil using integrated springs. This innovative approach offers a scalable, sustainable, and efficient solution for energy harvesting, with potential applications in powering low-energy electronic devices. The paper presents a practical implementation of piezoelectric energy harvesting technology, highlighting its promise for sustainable energy practices.