Indoor Path Loss Modeling for 5G Communications in Smart Factory Scenarios Based on Meta-Learning

Pei Wang, Hyukjoon Lee
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引用次数: 8

Abstract

Millimeter waves (mmWaves) of the 28 GHz frequency bands have been selected for the 5G communications with special usage scenarios such as smart factories. Indoor path loss prediction plays an important role in configuring a base station to be able to utilize the full capacity of the new technology. Although machine learning has attracted much attention recently in path loss modeling thanks to its ability to make accurate predictions, its performance can be limited by the size of available measurement data set used for training. In this paper, we propose a new training strategy to train path loss models based on convolutional neural network (CNN). The proposed strategy is based on meta-learning which performs well in few-shot learning scenarios with multiple tasks comprising a meta-task. It is shown that the indoor path loss model based on a CNN configured as a metatask of multiple beams can outperform the CNN models by a conventional training algorithm as well as empirical models.
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基于元学习的智能工厂5G通信室内路径损耗建模
在智能工厂等特殊使用场景下,5G通信选择了28ghz频段的毫米波(mmWaves)。室内路径损耗预测在配置基站以充分利用新技术的能力方面起着重要作用。虽然机器学习最近在路径损失建模中引起了很多关注,因为它能够做出准确的预测,但它的性能可能受到用于训练的可用测量数据集的大小的限制。本文提出了一种基于卷积神经网络(CNN)的路径损失模型训练策略。所提出的策略是基于元学习的,它在包含元任务的多个任务的少量学习场景中表现良好。结果表明,将CNN配置为多波束元任务的室内路径损失模型优于传统训练算法和经验模型的CNN模型。
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