Interpretable AI-based Large-scale 3D Pathloss Prediction Model for
enabling Emerging Self-Driving Networks
- URL: http://arxiv.org/abs/2201.12899v1
- Date: Sun, 30 Jan 2022 19:50:16 GMT
- Title: Interpretable AI-based Large-scale 3D Pathloss Prediction Model for
enabling Emerging Self-Driving Networks
- Authors: Usama Masood, Hasan Farooq, Ali Imran, Adnan Abu-Dayya
- Abstract summary: We propose a Machine Learning-based model that leverages novel key predictors for estimating pathloss.
By quantitatively evaluating the ability of various ML algorithms in terms of predictive, generalization and computational performance, our results show that Light Gradient Boosting Machine (LightGBM) algorithm overall outperforms others.
- Score: 3.710841042000923
- License: http://creativecommons.org/licenses/by/4.0/
- Abstract: In modern wireless communication systems, radio propagation modeling to
estimate pathloss has always been a fundamental task in system design and
optimization. The state-of-the-art empirical propagation models are based on
measurements in specific environments and limited in their ability to capture
idiosyncrasies of various propagation environments. To cope with this problem,
ray-tracing based solutions are used in commercial planning tools, but they
tend to be extremely time-consuming and expensive. We propose a Machine
Learning (ML)-based model that leverages novel key predictors for estimating
pathloss. By quantitatively evaluating the ability of various ML algorithms in
terms of predictive, generalization and computational performance, our results
show that Light Gradient Boosting Machine (LightGBM) algorithm overall
outperforms others, even with sparse training data, by providing a 65% increase
in prediction accuracy as compared to empirical models and 13x decrease in
prediction time as compared to ray-tracing. To address the interpretability
challenge that thwarts the adoption of most ML-based models, we perform
extensive secondary analysis using SHapley Additive exPlanations (SHAP) method,
yielding many practically useful insights that can be leveraged for
intelligently tuning the network configuration, selective enrichment of
training data in real networks and for building lighter ML-based propagation
model to enable low-latency use-cases.
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