Abstract This study presents a pioneering approach to developing gesture controlled industrial-based bladeless fan powered by solar energy, utilizing recycled plastic materials to promote sustainability and cutting-edge technology. A range of carefully selected components, including a microcontroller, ultrasonic sensors, relays, axial flow fan, PVC pipe, and photovoltaic panel, were integrated to create an efficient and reliable system. The materials were chosen for their durability and ability to withstand industrial use, while optimizing fan performance and minimizing energy consumption. The manufacturing process ensures a scalable and cost-effective approach, making it an attractive solution for industrial applications. The system's design incorporates advanced features, such as energy management, obstacle detection, and safe control of high-voltage devices. The microcontroller executes code to control system functions, interacting with sensors and managing battery charge levels. The ultrasonic sensors enable accurate distance measurement and obstacle detection, while the relays provide safe and efficient control of high-voltage devices. The axial flow fan, housed in a lightweight and corrosion-resistant PVC pipe, delivers efficient cooling performance. The system's energy efficiency is achieved through optimizing energy storage and usage, reducing waste and environmental impact. The incorporation of durable components and design features ensures long-term performance and reliability. This study demonstrates a comprehensive approach to developing a sustainable and efficient solar-powered fan system, showcasing the potential for innovative and eco-friendly solutions in industrial applications. By harnessing solar energy and utilizing recycled materials, this study contributes to a more sustainable future.
Onah et al. (Thu,) studied this question.