A GNN-based surrogate model predicts MoM-quality surface currents on 3D conducting bodies, trading 2-3x accuracy for 3-5x faster training compared to PhiGRL.
RayProNet: A Neural Point Field Framework for Radio Propagation Modeling in 3D Environments
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abstract
The radio wave propagation channel is central to the performance of wireless communication systems. In this paper, we introduce a novel machine learning-empowered methodology for wireless channel modeling. The key ingredients include a point-cloud-based neural network and a Spherical Harmonics encoder with light probes. Our approach offers several significant advantages, including the flexibility to adjust antenna radiation patterns and transmitter/receiver locations, the capability to predict radio power maps, and the scalability of large-scale wireless scenes. As a result, it lays the groundwork for an end-to-end pipeline for network planning and deployment optimization. The proposed work is validated in various outdoor and indoor radio environments.
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Study on a Fast Solver for Combined Field Integral Equations of 3D Conducting Bodies Based on Graph Neural Networks
A GNN-based surrogate model predicts MoM-quality surface currents on 3D conducting bodies, trading 2-3x accuracy for 3-5x faster training compared to PhiGRL.