A Path Forward: 6G Resource Allocation from a Deep Q-Learning Perspective

The 6G paradigm presents a myriad of challenges, as it promises complex features such as managing diverse traffic profiles under a unified infrastructure. While many studies propose deep-Q learning (DQN) approaches for resource management in Network Slicing (NS) schemes, these algorithms often face a core issue: they are not easily reproducible in real-world environments due to their high dimensionality. In this study, we analyze a distributed DQN-based radio resource allocation methodology, designed to efficiently meet specific Service Level Agreements (SLAs). Our contribution includes making the code publicly available for further research and evaluation. We then assess its performance through a comparison with a Baseline DQN approach, highlighting the strengths and limitations of both models.

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Publication Details

Published
2024-11-18
DOI
https://doi.org/10.1109/urucon63440.2024.10850079
Citations
1
Primary Topic
Advanced MIMO Systems Optimization
Type
article
Field-Weighted Citation Impact
0.21
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A Path Forward: 6G Resource Allocation from a Deep Q-Learning Perspective

Claudina Rattaro, Lucas Inglés, Pablo Belzarena
1 citations
Advanced MIMO Systems Optimization
0.21
article

A Path Forward: 6G Resource Allocation from a Deep Q-Learning Perspective

Claudina Rattaro, Lucas Inglés, Pablo Belzarena
article en
1 citations

Abstract

The 6G paradigm presents a myriad of challenges, as it promises complex features such as managing diverse traffic profiles under a unified infrastructure. While many studies propose deep-Q learning (DQN) approaches for resource management in Network Slicing (NS) schemes, these algorithms often face a core issue: they are not easily reproducible in real-world environments due to their high dimensionality. In this study, we analyze a distributed DQN-based radio resource allocation methodology, designed to efficiently meet specific Service Level Agreements (SLAs). Our contribution includes making the code publicly available for further research and evaluation. We then assess its performance through a comparison with a Baseline DQN approach, highlighting the strengths and limitations of both models.

Openalex Percentile: Top 44%
Advanced MIMO Systems Optimization
0.21
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