Benchmarking Federated Learning for Throughput Prediction in 5G Live Streaming Applications

Dutta, Yuvraj, Chatterjee, Soumyajit, Chakraborty, Sandip, Palit, Basabdatta

arXiv.org Artificial Intelligence 

--Accurate and adaptive network throughput prediction is essential for latency-sensitive and bandwidth-intensive applications in 5G and emerging 6G networks. However, most existing methods rely on centralized training with uniformly collected data, limiting their applicability in heterogeneous mobile environments with non-IID data distributions. This paper presents the first comprehensive benchmarking of federated learning (FL) strategies for throughput prediction in realistic 5G edge scenarios. We evaluate three aggregation algorithms - F edAvg, F edProx, and F edBN-across four time-series architectures: LSTM, CNN, CNN+LSTM, and Transformer, using five diverse real-world datasets. We systematically analyze the effects of client heterogeneity, cohort size, and history window length on prediction performance. Our results reveal key trade-offs among model complexities, convergence rates, and generalization. It is found that F edBN consistently delivers robust performance under non-IID conditions. LSTM is, therefore, found to achieve a favorable balance between accuracy, rounds, and temporal footprint. T o validate the end-to-end applicability of the framework, we have integrated our FL-based predictors into a live adaptive streaming pipeline. It is seen that F edBN-based LSTM and Transformer models improve mean QoE scores by 11.7% and 11.4%, respectively, over F edAvg, while also reducing the variance. These findings offer actionable insights for building scalable, privacy-preserving, and edge-aware throughput prediction systems in next-generation wireless networks. HE increasing demand for high-bandwidth, low-latency applications in next-generation wireless networks, such as 5G and the emerging 6G, has made accurate and robust network throughput prediction indispensable for sustaining performance under dynamic and resource-constrained network conditions. Dutta and B.Palit are with the Department of Electronics and Communication Engineering, National Institute of Technology Rourkela, India - 769008.

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