DESIGN OF AN UNMANNED AUTONOMOUS DRONE TAXI FOR DELIVERY SERVICES IN URBAN ENVIRONMENTS
Keywords:
Keywords: autonomous drone, urban delivery, UAV design, drone taxi, logistics optimization.Abstract
Abstract: The rapid growth of urbanization and e-commerce has significantly increased the demand for fast, efficient, and reliable delivery systems. Traditional ground transportation methods often face challenges such as traffic congestion, long delivery times, fuel consumption, and environmental pollution. In this context, unmanned aerial vehicles (UAVs), commonly known as drones, have emerged as an innovative solution for urban logistics. This research focuses on the design and development of an autonomous drone taxi system intended for delivery services in urban environments.The study aims to create an optimized drone design capable of operating safely, efficiently, and autonomously within complex city infrastructures. The research analyzes aerodynamic performance, structural design, payload capacity, navigation systems, battery efficiency, and safety mechanisms. Special attention is given to urban conditions such as high-rise buildings, signal interference, weather conditions, and population density. The proposed drone taxi model integrates modern technologies including artificial intelligence, GPS navigation, obstacle detection systems, and real-time route optimization.
References
1. Austin Brown, & Michael Harris. (2021). Autonomous Drone Systems for Urban Logistics and Delivery Services. Journal of Unmanned Vehicle Systems, 9(3), 145–162.
2. Paul G. Fahlstrom, & Thomas J. Gleason. (2019). Introduction to UAV Systems. Wiley Publishing.
3. Federal Aviation Administration. (2023). Urban Air Mobility and Drone Delivery Regulations. FAA Publications.
4. International Civil Aviation Organization. (2022). Manual on Unmanned Aircraft Systems (UAS). ICAO Publications.
5. Amazon. (2024). Prime Air Delivery System Technical Report.
6. UPS. (2023). Drone Delivery Operations and Logistics Optimization Report.
7. Randal W. Beard, & Timothy W. McLain. (2018). Small Unmanned Aircraft: Theory and Practice. Princeton University Press.
8. Aerodynamics and UAV Design Research Group. (2020). Aerodynamic Optimization of Multi-Rotor Drones in Urban Conditions. Aerospace Engineering Journal, 15(2), 89–105.