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5G: A Tutorial Overview of Standards, Trials, Challenges, Deployment, and Practice

IEEE Journal on Selected Areas in Communications · 2017 · Vol. 35(6) · pp. 1201–1221
Mansoor ShafiAndreas F. MolischPeter J. SmithThomas HausteinPeiying ZhuPrasan De SilvaFredrik TufvessonAnass BenjebbourGerhard Wunder

Abstract

There is considerable pressure to define the key requirements of 5G, develop 5G standards, and perform technology trials as quickly as possible. Normally, these activities are best done in series but there is a desire to complete these tasks in parallel so that commercial deployments of 5G can begin by 2020. 5G will not be an incremental improvement over its predecessors; it aims to be a revolutionary leap forward in terms of data rates, latency, massive connectivity, network reliability, and energy efficiency. These capabilities are targeted at realizing high-speed connectivity, the Internet of Things, augmented virtual reality, the tactile internet, and so on. The requirements of 5G are expected to be met by new spectrum in the microwave bands (3.3-4.2 GHz), and utilizing large bandwidths available in mm-wave bands, increasing spatial degrees of freedom via large antenna arrays and 3-D MIMO, network densification, and new waveforms that provide scalability and flexibility to meet the varying demands of 5G services. Unlike the one size fits all 4G core networks, the 5G core network must be flexible and adaptable and is expected to simultaneously provide optimized support for the diverse 5G use case categories. In this paper, we provide an overview of 5G research, standardization trials, and deployment challenges. Due to the enormous scope of 5G systems, it is necessary to provide some direction in a tutorial article, and in this overview, the focus is largely user centric, rather than device centric. In addition to surveying the state of play in the area, we identify leading technologies, evaluating their strengths and weaknesses, and outline the key challenges ahead, with research test beds delivering promising performance but pre-commercial trials lagging behind the desired 5G targets.

Advanced MIMO Systems OptimizationAdvanced Wireless Communication TechnologiesMillimeter-Wave Propagation and ModelingComputer scienceSoftware deploymentScalabilityStandardizationThe InternetFlexibility (engineering)TelecommunicationsScope (computer science)Modular designCore network

Funding

  • National Science Foundation
Citations
2,252
FWCI
122.96
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References
194
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References
Spatially Sparse Precoding in Millimeter Wave MIMO Systems
IEEE Transactions on Wireless Communications · 2014 · 3,631 citations
What Will 5G Be?
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Massive MIMO in the UL/DL of Cellular Networks: How Many Antennas Do We Need?
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