Curated Collaborative AI Edge with Network Data Analytics for B5G/6G Radio Access Networks

Fuente: arXiv
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Main Authors: Ali, Sardar Jaffar, Raza, Syed M., Le, Duc-Tai, Challa, Rajesh, Chung, Min Young, Shroff, Ness, Choo, Hyunseung
Format: Preprint
Published: 2025
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author Ali, Sardar Jaffar
Raza, Syed M.
Le, Duc-Tai
Challa, Rajesh
Chung, Min Young
Shroff, Ness
Choo, Hyunseung
author_facet Ali, Sardar Jaffar
Raza, Syed M.
Le, Duc-Tai
Challa, Rajesh
Chung, Min Young
Shroff, Ness
Choo, Hyunseung
contents Despite advancements, Radio Access Networks (RAN) still account for over 50\% of the total power consumption in 5G networks. Existing RAN split options do not fully harness data potential, presenting an opportunity to reduce operational expenditures. This paper addresses this opportunity through a twofold approach. First, highly accurate network traffic and user predictions are achieved using the proposed Curated Collaborative Learning (CCL) framework, which selectively collaborates with relevant correlated data for traffic forecasting. CCL optimally determines whom, when, and what to collaborate with, significantly outperforming state-of-the-art approaches, including global, federated, personalized federated, and cyclic institutional incremental learnings by 43.9%, 39.1%, 40.8%, and 31.35%, respectively. Second, the Distributed Unit Pooling Scheme (DUPS) is proposed, leveraging deep reinforcement learning and prediction inferences from CCL to reduce the number of active DU servers efficiently. DUPS dynamically redirects traffic from underutilized DU servers to optimize resource use, improving energy efficiency by up to 89% over conventional strategies, translating into substantial monetary benefits for operators. By integrating CCL-driven predictions with DUPS, this paper demonstrates a transformative approach for minimizing energy consumption and operational costs in 5G RANs, significantly enhancing efficiency and cost-effectiveness.
format Preprint
id arxiv_https___arxiv_org_abs_2507_01994
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Curated Collaborative AI Edge with Network Data Analytics for B5G/6G Radio Access Networks
Ali, Sardar Jaffar
Raza, Syed M.
Le, Duc-Tai
Challa, Rajesh
Chung, Min Young
Shroff, Ness
Choo, Hyunseung
Networking and Internet Architecture
Multiagent Systems
Despite advancements, Radio Access Networks (RAN) still account for over 50\% of the total power consumption in 5G networks. Existing RAN split options do not fully harness data potential, presenting an opportunity to reduce operational expenditures. This paper addresses this opportunity through a twofold approach. First, highly accurate network traffic and user predictions are achieved using the proposed Curated Collaborative Learning (CCL) framework, which selectively collaborates with relevant correlated data for traffic forecasting. CCL optimally determines whom, when, and what to collaborate with, significantly outperforming state-of-the-art approaches, including global, federated, personalized federated, and cyclic institutional incremental learnings by 43.9%, 39.1%, 40.8%, and 31.35%, respectively. Second, the Distributed Unit Pooling Scheme (DUPS) is proposed, leveraging deep reinforcement learning and prediction inferences from CCL to reduce the number of active DU servers efficiently. DUPS dynamically redirects traffic from underutilized DU servers to optimize resource use, improving energy efficiency by up to 89% over conventional strategies, translating into substantial monetary benefits for operators. By integrating CCL-driven predictions with DUPS, this paper demonstrates a transformative approach for minimizing energy consumption and operational costs in 5G RANs, significantly enhancing efficiency and cost-effectiveness.
title Curated Collaborative AI Edge with Network Data Analytics for B5G/6G Radio Access Networks
topic Networking and Internet Architecture
Multiagent Systems
url https://arxiv.org/abs/2507.01994