Adaptive Prediction Approach for 3D Geometry-based communication

Fuente: arXiv
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Autores principales: Zarour, Mervat, Zhou, Qiuheng, Melnyk, Sergiy, Schotten, Hans D.
Formato: Preprint
Publicado: 2023
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author Zarour, Mervat
Zhou, Qiuheng
Melnyk, Sergiy
Schotten, Hans D.
author_facet Zarour, Mervat
Zhou, Qiuheng
Melnyk, Sergiy
Schotten, Hans D.
contents This paper addresses the challenges of mobile user requirements in shadowing and multi-fading environments, focusing on the Downlink (DL) radio node selection based on Uplink (UL) channel estimation. One of the key issues tackled in this research is the prediction performance in scenarios where estimated channels are integrated. An adaptive deep learning approach is proposed to improve performance, offering a compelling alternative to traditional interpolation techniques for air-to-ground link selection on demand. Moreover, our study considers a 3D channel model, which provides a more realistic and accurate representation than 2D models, particularly in the context of 3D network node distributions. This consideration becomes crucial in addressing the complex multipath fading effects within geometric stochastic 3D 3GPP channel models in urban environments. Furthermore, our research emphasises the need for adaptive prediction mechanisms that carefully balance the trade-off between DL link forecasted frequency response accuracy and the complexity requirements associated with estimation and prediction. This paper contributes to advancing 3D radio resource management by addressing these challenges, enabling more efficient and reliable communication for energy-constrained flying network nodes in dynamic environments.
format Preprint
id arxiv_https___arxiv_org_abs_2311_03975
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle Adaptive Prediction Approach for 3D Geometry-based communication
Zarour, Mervat
Zhou, Qiuheng
Melnyk, Sergiy
Schotten, Hans D.
Networking and Internet Architecture
This paper addresses the challenges of mobile user requirements in shadowing and multi-fading environments, focusing on the Downlink (DL) radio node selection based on Uplink (UL) channel estimation. One of the key issues tackled in this research is the prediction performance in scenarios where estimated channels are integrated. An adaptive deep learning approach is proposed to improve performance, offering a compelling alternative to traditional interpolation techniques for air-to-ground link selection on demand. Moreover, our study considers a 3D channel model, which provides a more realistic and accurate representation than 2D models, particularly in the context of 3D network node distributions. This consideration becomes crucial in addressing the complex multipath fading effects within geometric stochastic 3D 3GPP channel models in urban environments. Furthermore, our research emphasises the need for adaptive prediction mechanisms that carefully balance the trade-off between DL link forecasted frequency response accuracy and the complexity requirements associated with estimation and prediction. This paper contributes to advancing 3D radio resource management by addressing these challenges, enabling more efficient and reliable communication for energy-constrained flying network nodes in dynamic environments.
title Adaptive Prediction Approach for 3D Geometry-based communication
topic Networking and Internet Architecture
url https://arxiv.org/abs/2311.03975