mmWave Doubly-Massive-MIMO Communications Enhanced With an Intelligent Reflecting Surface: Asymptotic Analysis

As a means to control wireless propagation environments, the use of emerging and novel intelligent reflecting surfaces (IRS) is envisioned to enhance and broaden many applications in future wireless networks. This paper is concerned with an IRS-assisted millimeter-wave (mmWave) system in which the I...

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Main Authors: Dian-Wu Yue, Ha H. Nguyen, Yu Sun
Format: Article
Language:English
Published: IEEE 2020-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/9216010/
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spelling doaj-0bdaee66b5c94679b5320956727fca7d2021-03-30T04:26:58ZengIEEEIEEE Access2169-35362020-01-01818377418378610.1109/ACCESS.2020.30292449216010mmWave Doubly-Massive-MIMO Communications Enhanced With an Intelligent Reflecting Surface: Asymptotic AnalysisDian-Wu Yue0https://orcid.org/0000-0001-9866-0194Ha H. Nguyen1https://orcid.org/0000-0001-6481-0422Yu Sun2College of Information Science and Technology, Dalian Maritime University, Dalian, ChinaDepartment of Electrical and Computer Engineering, University of Saskatchewan, Saskatoon, SK, CanadaCollege of Information Science and Technology, Dalian Maritime University, Dalian, ChinaAs a means to control wireless propagation environments, the use of emerging and novel intelligent reflecting surfaces (IRS) is envisioned to enhance and broaden many applications in future wireless networks. This paper is concerned with an IRS-assisted millimeter-wave (mmWave) system in which the IRS consists of multiple subsurfaces, each having the same number of passive reflecting elements, whereas both the transmitter and receiver are equipped with massive antenna arrays. Under the scenario of having very large numbers of antennas at both transmit and receive ends, the achievable rate of the system is derived. Furthermore, with the objective of maximizing the achievable rate, the paper presents optimal solutions of power allocation, precoding/combining, and IRS's phase shifts. Then it is shown that when the number of reflecting elements at each subsurface is very large, the number of favorable and controllable propagation paths provided by the IRS is simply equal to the number of subsurfaces while the received signal-to-noise ratio corresponding to each of the favorable paths increases quadratically with the number of reflecting elements. The problem of minimizing the transmit power subject to the rate constraint is also analyzed for the scenario without direct paths in the pure LOS propagation. In addition, the asymptotic analysis is extended to the multiuser scenario. Finally, numerical results are provided to corroborate the obtained analysis.https://ieeexplore.ieee.org/document/9216010/Intelligent reflecting surfacereconfigurable intelligent surfacemassive MIMOmillimeter-waveachievable ratepower allocation
collection DOAJ
language English
format Article
sources DOAJ
author Dian-Wu Yue
Ha H. Nguyen
Yu Sun
spellingShingle Dian-Wu Yue
Ha H. Nguyen
Yu Sun
mmWave Doubly-Massive-MIMO Communications Enhanced With an Intelligent Reflecting Surface: Asymptotic Analysis
IEEE Access
Intelligent reflecting surface
reconfigurable intelligent surface
massive MIMO
millimeter-wave
achievable rate
power allocation
author_facet Dian-Wu Yue
Ha H. Nguyen
Yu Sun
author_sort Dian-Wu Yue
title mmWave Doubly-Massive-MIMO Communications Enhanced With an Intelligent Reflecting Surface: Asymptotic Analysis
title_short mmWave Doubly-Massive-MIMO Communications Enhanced With an Intelligent Reflecting Surface: Asymptotic Analysis
title_full mmWave Doubly-Massive-MIMO Communications Enhanced With an Intelligent Reflecting Surface: Asymptotic Analysis
title_fullStr mmWave Doubly-Massive-MIMO Communications Enhanced With an Intelligent Reflecting Surface: Asymptotic Analysis
title_full_unstemmed mmWave Doubly-Massive-MIMO Communications Enhanced With an Intelligent Reflecting Surface: Asymptotic Analysis
title_sort mmwave doubly-massive-mimo communications enhanced with an intelligent reflecting surface: asymptotic analysis
publisher IEEE
series IEEE Access
issn 2169-3536
publishDate 2020-01-01
description As a means to control wireless propagation environments, the use of emerging and novel intelligent reflecting surfaces (IRS) is envisioned to enhance and broaden many applications in future wireless networks. This paper is concerned with an IRS-assisted millimeter-wave (mmWave) system in which the IRS consists of multiple subsurfaces, each having the same number of passive reflecting elements, whereas both the transmitter and receiver are equipped with massive antenna arrays. Under the scenario of having very large numbers of antennas at both transmit and receive ends, the achievable rate of the system is derived. Furthermore, with the objective of maximizing the achievable rate, the paper presents optimal solutions of power allocation, precoding/combining, and IRS's phase shifts. Then it is shown that when the number of reflecting elements at each subsurface is very large, the number of favorable and controllable propagation paths provided by the IRS is simply equal to the number of subsurfaces while the received signal-to-noise ratio corresponding to each of the favorable paths increases quadratically with the number of reflecting elements. The problem of minimizing the transmit power subject to the rate constraint is also analyzed for the scenario without direct paths in the pure LOS propagation. In addition, the asymptotic analysis is extended to the multiuser scenario. Finally, numerical results are provided to corroborate the obtained analysis.
topic Intelligent reflecting surface
reconfigurable intelligent surface
massive MIMO
millimeter-wave
achievable rate
power allocation
url https://ieeexplore.ieee.org/document/9216010/
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AT hahnguyen mmwavedoublymassivemimocommunicationsenhancedwithanintelligentreflectingsurfaceasymptoticanalysis
AT yusun mmwavedoublymassivemimocommunicationsenhancedwithanintelligentreflectingsurfaceasymptoticanalysis
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