Publication Type
Conference Proceeding
Publication Date (Issue Year)
2026
Journal Name
Electrical Engineering and Systems Science
Abstract
Establishing and maintaining 5G mmWave vehicular connectivity poses a significant challenge due to high user mobility that necessitates frequent triggering of beam switching procedures. Departing from reactive beam switching based on the user device channel state feedback, proactive beam switching prepares in advance for upcoming beam switching decisions by exploiting accurate channel state information (CSI) prediction. In this paper, we develop a framework for autonomous self-trained CSI prediction for mmWave vehicular users where a base station (gNB) collects and labels a dataset that it uses for training recurrent neural network (RNN)-based CSI prediction model. The proposed framework exploits the CSI feedback from vehicular users combined with overhearing the C-V2X cooperative awareness messages (CAMs) they broadcast. We implement and evaluate the proposed framework using deepMIMO dataset generation environment and demonstrate its capability to provide accurate CSI prediction for 5G mmWave vehicular users. CSI prediction model is trained and its capability to provide accurate CSI predictions from various input features are investigated.
Keywords
Autonomous, Self-Trained Channel, State Prediction, Wave Vehicular Communications
Rsif Scholar Name
Abidemi Matthew Orimogunje
Thematic Area
ICTs Including Big Data and Artificial Intelligence
Africa Host University (AHU)
University of Rwanda (UR), Rwanda
Funding Statement
This work was jointly supported by the African Center of Excellence in Internet of Things (ACEIoT) from College of Science and Technology, University of Rwanda, and The Regional Scholarship and Innovation Fund (RSIF). In addition, this work received funding from the Horizon 2020 research and innovation
Recommended Citation
Orimogunje, A., Ninkovic, V., Twahirwa, E., Gashema, G., & Vukobratovic, D. (2026). Autonomous Self-Trained Channel State PredictionMethod for mmWave Vehicular Communications. Electrical Engineering and Systems Science https://doi.org/10.48550/arXiv.2410.02326