Abstract This study investigates the construction and operation of a small quadcopter drone that runs on battery power, supplemented by solar-charging. Building a solar-powered charging station offers a robust and sustainable solution, providing reliable energy wherever your work takes you. This approach ensures your high-demand equipment remains charged, allowing for uninterrupted creative flow. Traditional power generators are often noisy. Autonomous drone docking presents significant engineering challenges at the intersection of precision landing, power transfer, and mechanical coupling. Current systems must achieve positioning accuracies within millimeters while compensating for wind disturbances, maintain reliable electrical. Research and Teaching Assistant Professor, Warsaw University of Technology, Faculty of Power and Aeronautical Engineering, 00-665, Warsaw, Poland. The drone's airframe incorporates two 6V, 100 mA (0. 6W) photovoltaic panel (70 mm × 70 mm) to collect solar energy and replenish its 3. 7V lithium-. Charging Station: Comprises a smart charger, charging pad, and optional all-weather charging station for outdoor environments Autonomous navigation stack for the Drone for outdoor application Precision landing stack for indoor and outdoor application Battery management system software collects.