Seamlessly merging radar ranging and imaging, wireless communications, and spectrum sensing for 6G empowered by microwave photonics

Taixia Shi, Yang Chen, Jianping Yao
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Abstract

To facilitate intelligent interconnection among people, machines, and things, the next generation of communication technology must incorporate various sensing functions besides high-speed wireless communications. Integration of radar, wireless communications, and spectrum sensing is being investigated for 6G with increased spectral efficiency, enhanced system integration, and reduced cost. Microwave photonics, a technique that combines microwave engineering and photonic technology is considered an effective solution for implementing the integration and breaking the bottleneck problems of electronic solutions. Here, we show a photonics-assisted joint radar, wireless communications, and spectrum sensing system that enables precise perception of the surrounding physical and electromagnetic environments while maintaining high-speed communication. Communication signals and frequency-sweep signals are merged optically using a shared system architecture and hardware to achieve signal level sharing, ultimately simultaneously achieving high-accuracy radar ranging and imaging with a measurement error within ± 4 cm and an imaging resolution of 25 × 24.7 mm, high-data-rate wireless communications at 2 Gbaud, and wideband spectrum sensing with a frequency measurement error within ±10 MHz in a 6 GHz bandwidth. Taixia Shi and colleagues demonstrate a microwave photonics system with integrated capabilities of radar, communication, and spectrum sensing for 6G technologies, simultaneously achieving high-accuracy radar ranging and imaging, high-data-rate wireless communications, and wideband spectrum sensing.

Abstract Image

无缝融合雷达测距与成像、无线通信和频谱传感技术,实现由微波光子技术助力的 6G
为了促进人、机、物之间的智能互联,下一代通信技术除了高速无线通信外,还必须集成各种传感功能。目前正在研究如何将雷达、无线通信和频谱传感集成到 6G 技术中,以提高频谱效率、增强系统集成和降低成本。微波光子学是一种将微波工程和光子技术相结合的技术,被认为是实现集成和突破电子解决方案瓶颈问题的有效解决方案。在这里,我们展示了一种光子辅助联合雷达、无线通信和频谱传感系统,该系统可在保持高速通信的同时精确感知周围的物理和电磁环境。通信信号和扫频信号通过共享系统架构和硬件进行光学合并,以实现信号电平共享,最终同时实现高精度雷达测距和成像(测量误差在± 4 厘米以内,成像分辨率为 25 × 24.7 毫米)、2 Gbaud 的高数据速率无线通信以及宽带频谱传感(在 6 GHz 带宽内频率测量误差在±10 MHz 内)。施泰夏及其同事展示了一种微波光子系统,该系统集成了雷达、通信和频谱传感功能,适用于 6G 技术,可同时实现高精度雷达测距和成像、高数据速率无线通信以及宽带频谱传感。
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