Protograph bit-interleaved coded modulation: A bandwidth-efficient design paradigm for 6G wireless communications

Fang, Yi; Chen, Pingping; Guan, Yong Liang; Lau, Francis C. M.; Li, Yonghui; Chen, Guanrong

doi:10.1016/j.phycom.2022.101930

Cited by 4 publications

(1 citation statement)

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“…The radio spectrum efficiency is a non-trivial feature and a hot research topic in wireless communication. It demands suitable time-frequency or pilot training reuse factors to achieve maximum system throughput [45]. In the context of the conventional orthogonal pilot training process for CSI, the length and required number of orthogonal training sequences should be equal to or greater than the quantity of transmitting antennae [46].…”

Section: Pilot Contaminationmentioning

confidence: 99%

A Study on Multi-Antenna and Pertinent Technologies with AI/ML Approaches for B5G/6G Networks

et al. 2022

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The quantum leap in mobile data traffic and high density of wireless electronic devices, coupled with the advancements in industrial radio monitoring and autonomous systems, have created great challenges for smooth wireless network operations. The fifth-generation and beyond (B5G) (also being referred to as sixth-generation (6G)) wireless communication technologies, due to their compatibility with the previous generations, are expected to overcome these unparalleled challenges. Accompanied by traditional and new techniques, the massive multiple input multiple output (mMIMO) approach is one of the evolving technologies for B5G/6G systems used to control the ever-increasing user stipulations and the emergence of new cases efficiently. However, the major challenges in deploying mMIMO systems are their high computational intricacy and high computing time latencies, as well as difficulties in fully exploiting the multi-antenna multi-frequency channels. Therefore, to optimize the current and B5G/6G wireless network elements proficiently, the use of the mMIMO approach in a HetNet structure with artificial intelligence (AI) techniques, e.g., machine learning (ML), distributed learning, federated learning, deep learning, and neural networks, has been considered as the prospective efficient solution. This work analyzes the observed problems and their AI/ML-enabled mitigation techniques in different mMIMO deployment scenarios for 5G/B5G networks. To provide a complete insight into the mMIMO systems with emerging antenna and propagation precoding techniques, we address and identify various relevant topics in each section that may help to make the future wireless systems robust. Overall, this work is designed to guide all B5G/6G stakeholders, including researchers and operators, aiming to understand the functional behavior and associated techniques to make such systems more agile for future communication purposes.

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Section: Pilot Contaminationmentioning

confidence: 99%