ENERGY in EVERY STEP: An IOT based Arduino-Powered Smart Footstep Power Generator

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Authors: Dr.Rashmi R.
Cited by: 0

Abstract

The Smart Footstep Power Generator is an innovative system designed to harvest energy from human footsteps using piezoelectric sensors. As individuals walk over the embedded tiles, mechanical pressure is converted into electrical energy, which is then stored in a battery for later use. This system is especially useful in crowded areas such as railway stations, airports, or shopping malls where foot traffic is high, ensuring continuous energy generation. The generated energy can power small devices like LED lights or sensors, contributing to sustainable and green energy initiatives. This project not only promotes renewable energy but also encourages awareness about energy conservation through practical implementation this project also integrates a microcontroller-based system to efficiently manage power storage and distribution. The Arduino microcontroller monitors voltage levels and ensures optimal charging of the battery, while an LCD display provides real-time updates on voltage output and energy generation. This intelligent interface adds educational and practical value to the system, making it suitable for implementation in smart city infrastructure. Furthermore, the design is scalable, low-cost, and easy to maintain, making it ideal for both urban and rural settings. By transforming everyday movement into a valuable energy source, the Smart Footstep Power Generator exemplifies the potential of combining technology and sustainability. An Arduino microcontroller manages the entire process, controlling the flow of energy and sometimes displaying the power generation through an LED. This setup can be used in areas with heavy foot traffic, such as walk ways or smart buildings, to power small devices like lights or sensors.

Fields of Study & Subjects

Innovative Energy Harvesting Technologies Advanced Sensor and Energy Harvesting Materials Arduino and IoT Applications

Publication details

Journal / source
International Journal of Innovative Research in Advanced Engineering
Volume
13
Issue
01
Pages
28–35
Publication date
20 January 2026
Language
EN