AI-Augmented Digital Twin Framework for Scalable 5G/6G Network Densification

The rapid growth of 5G and future 6G networks requires efficient and scalable radio access network (RAN) densification, especially in dense urban and industrial areas. Traditional planning uses manual surveys and simple propagation models, but these lack spatial accuracy and adaptability. Stochastic RF simulation tools often fail to model real-world conditions, such as material properties and geometry. This leads to poor site selection, higher costs, and rollout delays.This paper proposes an AI-based framework that combines high-resolution 3D modeling, Digital Twin technology, and deterministic ray tracing. It uses aerial and ground imagery to build detailed 3D models, enhanced with object detection and material classification through segmentation models. These models enable automatic feature extraction for RF simulation and planning. The system uses open-source 3D tools, vision transformers for segmentation, and a simulation engine with antenna radiation patterns and material-aware propagation. Tests in urban and campus settings show better prediction accuracy, less manual work, and lower costs than traditional methods. Results show that AI and Digital Twins improve and automate network deployment.

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Publication Details

Published
2025-09-15
DOI
https://doi.org/10.1109/ipin66788.2025.11213435
Primary Topic
Millimeter-Wave Propagation and Modeling
Type
article
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article

AI-Augmented Digital Twin Framework for Scalable 5G/6G Network Densification

Maximilian Stahlke, Tobias Feigl, Piotr Karbownik, Christopher Mutschler et al.
Millimeter-Wave Propagation and Modeling
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AI-Augmented Digital Twin Framework for Scalable 5G/6G Network Densification

Maximilian Stahlke, Tobias Feigl, Piotr Karbownik, Christopher Mutschler, George Yammine, Dominik Seuß, Johannes Schubert, Nisha George, Andrea Maestri
article en

Abstract

The rapid growth of 5G and future 6G networks requires efficient and scalable radio access network (RAN) densification, especially in dense urban and industrial areas. Traditional planning uses manual surveys and simple propagation models, but these lack spatial accuracy and adaptability. Stochastic RF simulation tools often fail to model real-world conditions, such as material properties and geometry. This leads to poor site selection, higher costs, and rollout delays.This paper proposes an AI-based framework that combines high-resolution 3D modeling, Digital Twin technology, and deterministic ray tracing. It uses aerial and ground imagery to build detailed 3D models, enhanced with object detection and material classification through segmentation models. These models enable automatic feature extraction for RF simulation and planning. The system uses open-source 3D tools, vision transformers for segmentation, and a simulation engine with antenna radiation patterns and material-aware propagation. Tests in urban and campus settings show better prediction accuracy, less manual work, and lower costs than traditional methods. Results show that AI and Digital Twins improve and automate network deployment.

Fraunhofer Institute for Integrated Circuits (DE), WWF Germany (DE)
Openalex Percentile: Top 69%
Millimeter-Wave Propagation and Modeling
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