A Low-Complexity Transceiver Design in Sparse Multipath Massive MIMO Channels

In this letter, we develop a low-complexity transceiver design, referred to as semirandom beam pairing, for sparse multipath massive multiple-input-multiple-output (MIMO) channels. By exploring a sparse representation of the MIMO channel in the virtual angular domain, we generate a set of transmit-r...

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Veröffentlicht in:IEEE signal processing letters 2016-10, Vol.23 (10), p.1301-1305
Hauptverfasser: Yuehua Yu, Peng Wang, He Chen, Yonghui Li, Vucetic, Branka
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creator Yuehua Yu
Peng Wang
He Chen
Yonghui Li
Vucetic, Branka
description In this letter, we develop a low-complexity transceiver design, referred to as semirandom beam pairing, for sparse multipath massive multiple-input-multiple-output (MIMO) channels. By exploring a sparse representation of the MIMO channel in the virtual angular domain, we generate a set of transmit-receive beam pairs in a semirandom way to support the simultaneous transmission of multiple data streams. These data streams can be easily separated at the receiver via a successive interference cancelation technique, and the power allocation among them are optimized based on the classical waterfilling principle. The achieved degree of freedom (DoF) and capacity of the proposed approach are analyzed. Simulation results show that, compared to the conventional singular value decomposition-based method, the proposed transceiver design can achieve near-optimal DoF and capacity with a significantly lower computational complexity.
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subjects Allocations
Antennas
Beams (radiation)
Channel sparsity
Channels
Computational complexity
Data transmission
degree of freedom (DoF)
Degrees of freedom
massive multiple-input-multiple-output (MIMO)
Mathematical analysis
MIMO
Receivers
Representations
Silicon carbide
transceiver design
Transceivers
title A Low-Complexity Transceiver Design in Sparse Multipath Massive MIMO Channels
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