5G网络中高效资源分配的深度强化学习和图神经网络

Martín Randall, P. Belzarena, Federico Larroca, P. Casas
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引用次数: 0

摘要

5G等移动网络的日益复杂,以及这些网络支持的大量设备和新用例,使无线网络中已经很复杂的资源分配问题成为一个最大的挑战。我们解决了用户关联的具体问题,这是无线系统中一个大量探索但尚未开放的资源分配问题。我们引入了grow,一种深度强化学习(DRL)驱动的方法,用于有效地将移动用户分配到基站,它将众所周知的深度Q网络(DQNs)扩展与图神经网络(gnn)相结合,以更好地建模预期奖励函数。我们展示了grow如何学习用户关联策略,该策略改进了当前应用的赋值启发式方法,并与更传统的q学习方法相比,将效用提高了10%以上,同时将用户拒绝率降低了20%。
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Deep Reinforcement Learning and Graph Neural Networks for Efficient Resource Allocation in 5G Networks
The increased sophistication of mobile networks such as 5G and beyond, and the plethora of devices and novel use cases to be supported by these networks, make of the already complex problem of resource allocation in wireless networks a paramount challenge. We address the specific problem of user association, a largely explored yet open resource allocation problem in wireless systems. We introduce GROWS, a deep reinforcement learning (DRL) driven approach to efficiently assign mobile users to base stations, which combines a well-known extension of Deep Q Networks (DQNs) with Graph Neural Networks (GNNs) to better model the function of expected rewards. We show how GROWS can learn a user association policy which improves over currently applied assignation heuristics, as well as compared against more traditional Q-learning approaches, improving utility by more than 10%, while reducing user rejections up to 20%.
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