A UAV-Aided Digital Twin Framework for IoT Networks with High Accuracy and Synchronization
Ghofran Khalaf, May Itani, Sanaa Sharafeddine

TL;DR
This paper proposes a UAV-assisted digital twin framework for IoT networks that enhances synchronization and accuracy using a novel AoDT metric, optimizing data collection and real-time system monitoring.
Contribution
It introduces a high-fidelity digital twin framework with a new AoDT metric and an optimization approach for UAV placement and data collection to improve IoT system synchronization.
Findings
The proposed framework achieves high accuracy and synchronization in digital twins.
Optimization of UAV locations improves data freshness and system monitoring.
Simulation results outperform baseline methods in data collection efficiency.
Abstract
With the continued growth of its core technologies, including the Internet of Things (IoT), artificial intelligence (AI), Big Data and data analytics, and edge computing, digital twin (DT) technology has witnessed a significant increase in industrial applications, helping the industry become more sustainable, smart, and adaptable. Hence, DT technology has emerged as a promising link between the physical and virtual worlds, enabling simulation, prediction, and real-time performance optimization. This work aims to explore the development of a high-fidelity digital twin framework, focusing on synchronization and accuracy between physical and digital systems to enhance data-driven decision making. To achieve this, we deploy several stationary UAVs in optimized locations to collect data from industrial IoT devices, which were used to monitor multiple physical entities and perform…
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Taxonomy
TopicsDigital Transformation in Industry · IoT and Edge/Fog Computing · Software-Defined Networks and 5G
