Photonic-Assisted E-Band Millimeter-Wave 1 × 2 MIMO Near-Sea-Surface Long-Distance Communication

E/W-band millimeter-wave signals are highly promising for long-distance offshore wireless communications. However, the high humidity over the sea surface, together with the continuous fluctuation of sea waves, gives rise to severe near-sea-surface channel impairments, such as strong atmospheric absorption and sea-surface-induced multipath, which significantly hampers long-range E-band transmission. This work proposes a photonic-assisted E-band millimeter-wave 1 × 2 MIMO communication system and conducts a 26 km near-sea-surface transmission experiment in the coastal area of Lianyungang, Jiangsu Province. A 73.5 GHz 5-Gbaud QPSK signal is transmitted, and spatial diversity reception followed by maximal ratio combining (MRC) is applied. Experimental results show that diversity reception improves system performance by about 4 dB, demonstrating that the proposed photonic-assisted E-band spatial diversity system and signal processing method can significantly extend the transmission distance.

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Publication Details

Journal
Photonics
Published
2026-01-26
DOI
https://doi.org/10.3390/photonics13020112
Primary Topic
Millimeter-Wave Propagation and Modeling
Type
article
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article

Photonic-Assisted E-Band Millimeter-Wave 1 × 2 MIMO Near-Sea-Surface Long-Distance Communication

Shuowei Wang, Tong Cheng, Qichao Lu, Renjie Li et al.
Photonics
Millimeter-Wave Propagation and Modeling
article

Photonic-Assisted E-Band Millimeter-Wave 1 × 2 MIMO Near-Sea-Surface Long-Distance Communication

Shuowei Wang, Tong Cheng, Qichao Lu, Renjie Li, Li Tao
article en

Abstract

E/W-band millimeter-wave signals are highly promising for long-distance offshore wireless communications. However, the high humidity over the sea surface, together with the continuous fluctuation of sea waves, gives rise to severe near-sea-surface channel impairments, such as strong atmospheric absorption and sea-surface-induced multipath, which significantly hampers long-range E-band transmission. This work proposes a photonic-assisted E-band millimeter-wave 1 × 2 MIMO communication system and conducts a 26 km near-sea-surface transmission experiment in the coastal area of Lianyungang, Jiangsu Province. A 73.5 GHz 5-Gbaud QPSK signal is transmitted, and spatial diversity reception followed by maximal ratio combining (MRC) is applied. Experimental results show that diversity reception improves system performance by about 4 dB, demonstrating that the proposed photonic-assisted E-band spatial diversity system and signal processing method can significantly extend the transmission distance.

PhotonicsVol. 13(2)
Wuhan Ship Development & Design Institute (CN)
Life below water
Openalex Percentile: Top 77%
Millimeter-Wave Propagation and Modeling
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