Development of Swing Mechanism for Power Generation With Real-Time Monitoring System Using the Internet of Thin

In this project, the selection of materials for the swing mechanism was crucial for its durability and performance. Mild steel was chosen due to its exceptional mechanical properties, strength, weight-bearing capacity, and resistance to environmental factors. The swing mechanism, with components such as a stand, swing, connecting rod, spur gear, bearings, freewheel, battery, which uses a dynamo and a sprocket, was designed to provide energy generation, sustainable and cost-effective without compromising user safety. Its dimensions and geometry are determined by combining ergonomic considerations with desired performance characteristics. The swing's metallic structure, bearings, shaft, and sprockets were selected to endure applied stresses and function well within given parameters. The integration of the Internet of Things (IoT) into the swing power generation system has revolutionized monitoring capabilities, through which, its connection to the internet for continuous data analysis, performance optimization, issue identification, and a deeper understanding of energy consumption patterns were enabled. This real-time monitoring architecture serves as a virtual observatory, providing instant data for analysis. The study also investigated the impact of swinging weight and oscillation frequency on the output voltage and current of the swing power generation system, from which, a change of the output voltage of the swing system based on the swinger's weight was discovered. The swing mechanism that converts kinetic energy from swinging motions into useful electrical energy was successfully conceived and built. The mechanism can generate power in the 6-8 volts range when used regularly. The project serves as a model for renewable energy education and awareness, demonstrating how to effectively extract, convert, and store energy from swings and suggesting creative renewable solutions for parks, schools, playgrounds, and communities.