Session: 06-01-01: General Aerospace-1

Paper Number: 165580

Design and Development of a Drone Utilizing 5G Technology for Logistics and Monitoring Purposes 

The advent of 5G technology has revolutionized wireless communication, delivering minimal latency, increased data transmission rates, and reliable connectivity. These improvements offer substantial potential for enhancing unmanned aerial vehicle operations, boosting their self-sufficiency, accuracy, and performance. By harnessing 5G's capabilities, drones can achieve instantaneous data exchange, expanded operational reach, and improved maneuverability, rendering them crucial for sectors such as transportation, surveillance, and emergency management.

These sectors are required to remove the limitation of the control range with RF technologies, which is a 15 to 20 km visual line of sight, and face challenges with obstacles on the navigation path and mission planning. Considering the steps forward to overcome these challenges informs us that maximizing the capabilities of 5G technology in drones necessitates the integration of sophisticated components, including robust and long-range communication systems, high-resolution imaging devices, power-efficient designs, and advanced navigation software. This study provides a solution to tackle crucial obstacles, such as ensuring uninterrupted connectivity, minimizing energy usage, and allowing for adaptable payload configurations. It introduces the creation of a state-of-the-art 5G-compatible drone engineered specifically for delivery and surveillance operations, offering a holistic answer to current industry requirements. 

The core of this system is a bespoke 5G communication module that enables continuous, rapid data transfer across extensive ranges. This study discusses the integration of dual imaging technology, using high-definition RGB cameras for detailed visual capture and thermal sensors for heat detection. These functionalities are crucial for applications ranging from nocturnal surveillance to emergency response and the transport of temperature-sensitive goods. Our enhanced coding on drone navigation and telemetry firmware has received a response rate of 1-5 nanoseconds, resulting in a reduced UAV error rate of 50%, ensuring safer and more efficient operations and navigation.   The drone's framework emphasizes lightweight yet durable construction and modularity, ensuring adaptability to diverse operational needs. Its propulsion mechanism is designed for extended flight durations, while an innovative power management system incorporates features like interchangeable batteries and cordless charging to minimize operational interruptions. 

The concept of unlimited operational range is explored through solar-augmented charging and cooperative swarm technology, where multiple drones collaborate to relay data and expand coverage efficiently. This investigation addresses the increasing need for intelligent drones capable of dependable performance in dynamic settings. Leveraging 5G connectivity, the drone can make real-time decisions, efficiently allocate resources, and function autonomously with enhanced safety measures. Preliminary tests have shown its ability to maintain stable communication, capture high-quality images, and navigate challenging terrains using AI-driven systems for obstacle avoidance and precise landings. 

The research findings have substantial implications for the logistics, surveillance, and emergency response industries. Our results provide insight into futuristic drone technologies with satellite communication, enhancements in payload capacity, energy optimization, and integration with emerging communication. This work contributes to the advancement of 5G-enabled drone technology, laying the groundwork for advanced intelligent, and efficient drone ecosystems.

Presenting Author: Pras Jadeja Williamsville East High School

Presenting Author Biography: Pras Jadeja is an aspiring high school student in New York State. He is pursuing an academic high school diploma with a focus on STEM in physics and engineering. He has been exploring innovation and design in STEM since his middle school years and aims to satisfy his curiosity by further learning the concepts of engineering and physics. He has been exploring innovation and design in STEM since his middle school years. Such experiences paved the way to further demonstrate interest in sustainable practices. During his early high school years as a sophomore in IB Myp, he successfully designed, tested, and created a customized working delivery drone. Additionally, he has displayed his commitment to research and design by exploring real-world engineering applications through internships at reputed and leading organizations in Drone technologies and sustainability.

Authors:

Pras Jadeja Williamsville East High School
Devendra Parmar Airotor Technologies
Krushang Gabani University at Buffalo