Learning Based Hybrid Beamforming Design for Full-Duplex Millimeter Wave
Systems
- URL: http://arxiv.org/abs/2004.08285v1
- Date: Thu, 16 Apr 2020 15:48:57 GMT
- Title: Learning Based Hybrid Beamforming Design for Full-Duplex Millimeter Wave
Systems
- Authors: Shaocheng Huang, Yu Ye, Ming Xiao
- Abstract summary: We propose two learning schemes to design HBF for FD mmWave systems, i.e., extreme learning machine based HBF and convolutional neural networks based HBF.
Results show that both learning based schemes can provide more robust HBF performance and achieve at least 22.1% higher spectral efficiency.
- Score: 22.478350298755892
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: Millimeter Wave (mmWave) communications with full-duplex (FD) have the
potential of increasing the spectral efficiency, relative to those with
half-duplex. However, the residual self-interference (SI) from FD and high
pathloss inherent to mmWave signals may degrade the system performance.
Meanwhile, hybrid beamforming (HBF) is an efficient technology to enhance the
channel gain and mitigate interference with reasonable complexity. However,
conventional HBF approaches for FD mmWave systems are based on optimization
processes, which are either too complex or strongly rely on the quality of
channel state information (CSI). We propose two learning schemes to design HBF
for FD mmWave systems, i.e., extreme learning machine based HBF (ELM-HBF) and
convolutional neural networks based HBF (CNN-HBF). Specifically, we first
propose an alternating direction method of multipliers (ADMM) based algorithm
to achieve SI cancellation beamforming, and then use a
majorization-minimization (MM) based algorithm for joint transmitting and
receiving HBF optimization. To train the learning networks, we simulate noisy
channels as input, and select the hybrid beamformers calculated by proposed
algorithms as targets. Results show that both learning based schemes can
provide more robust HBF performance and achieve at least 22.1% higher spectral
efficiency compared to orthogonal matching pursuit (OMP) algorithms. Besides,
the online prediction time of proposed learning based schemes is almost 20
times faster than the OMP scheme. Furthermore, the training time of ELM-HBF is
about 600 times faster than that of CNN-HBF with 64 transmitting and receiving
antennas.
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