Energy Consumption Reduction for UAV Trajectory Training : A Transfer Learning Approach
Chenrui Sun, Swarna Bindu Chetty, Gianluca Fontanesi, Jie Zhang,, Amirhossein Mohajerzadeh, David Grace, Hamed Ahmadi

TL;DR
This paper introduces a transfer learning method using DDQN to significantly reduce energy consumption during UAV trajectory training in dynamic environments, enhancing the efficiency of UAV deployment in 6G wireless networks.
Contribution
It proposes a novel transfer learning approach with DDQN to cut training energy and time for UAVs adapting to diverse environments, improving flexibility and sustainability.
Findings
Training energy consumption reduced by up to 58.51% in simulations.
Real-world tests showed energy savings of up to 44.85%.
Method effectively accelerates UAV adaptation to new environments.
Abstract
The advent of 6G technology demands flexible, scalable wireless architectures to support ultra-low latency, high connectivity, and high device density. The Open Radio Access Network (O-RAN) framework, with its open interfaces and virtualized functions, provides a promising foundation for such architectures. However, traditional fixed base stations alone are not sufficient to fully capitalize on the benefits of O-RAN due to their limited flexibility in responding to dynamic network demands. The integration of Unmanned Aerial Vehicles (UAVs) as mobile RUs within the O-RAN architecture offers a solution by leveraging the flexibility of drones to dynamically extend coverage. However, UAV operating in diverse environments requires frequent retraining, leading to significant energy waste. We proposed transfer learning based on Dueling Double Deep Q network (DDQN) with multi-step learning,…
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Taxonomy
TopicsMachine Learning and ELM · Advanced Neural Network Applications
MethodsBalanced Selection
