Multiple-partition cross-modulation programmable metasurface empowering wireless communications

Fuente: arXiv
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Main Authors: Zhang, Jun Wei, Qi, Zhen Jie, Wu, Li Jie, Cao, Wan Wan, Gao, Xinxin, Fu, Zhi Hui, Chen, Jing Yu, Lv, Jie Ming, Wang, Zheng Xing, Wang, Si Ran, Wu, Jun Wei, Zhang, Zhen, Zhang, Jia Nan, Li, Hui Dong, Dai, Jun Yan, Cheng, Qiang, Cui, Tie Jun
Format: Preprint
Published: 2024
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author Zhang, Jun Wei
Qi, Zhen Jie
Wu, Li Jie
Cao, Wan Wan
Gao, Xinxin
Fu, Zhi Hui
Chen, Jing Yu
Lv, Jie Ming
Wang, Zheng Xing
Wang, Si Ran
Wu, Jun Wei
Zhang, Zhen
Zhang, Jia Nan
Li, Hui Dong
Dai, Jun Yan
Cheng, Qiang
Cui, Tie Jun
author_facet Zhang, Jun Wei
Qi, Zhen Jie
Wu, Li Jie
Cao, Wan Wan
Gao, Xinxin
Fu, Zhi Hui
Chen, Jing Yu
Lv, Jie Ming
Wang, Zheng Xing
Wang, Si Ran
Wu, Jun Wei
Zhang, Zhen
Zhang, Jia Nan
Li, Hui Dong
Dai, Jun Yan
Cheng, Qiang
Cui, Tie Jun
contents With the versatile manipulation capability, programmable metasurfaces are rapidly advancing in their intelligence, integration, and commercialization levels. However, as the programmable metasurfaces scale up, their control configuration becomes increasingly complicated, posing significant challenges and limitations. Here, we propose a multiple-partition cross-modulation (MPCM) programmable metasurface to enhance the wireless communication coverage with low hardware complexity. We firstly propose an innovative encoding scheme to multiply the control voltage vectors of row-column crossing, achieving high beamforming precision in free space while maintaining low control hardware complexity and reducing memory requirements for coding sequences. We then design and fabricate an MPCM programmable metasurface to confirm the effectiveness of the proposed encoding scheme. The simulated and experimental results show good agreements with the theoretically calculated outcomes in beam scanning across the E and H planes and in free-space beam pointing. The MPCM programmable metasurface offers strong flexibility and low complexity by allowing various numbers and combinations of partition items in modulation methods, catering to diverse precision demands in various scenarios. We demonstrate the performance of MPCM programmable metasurface in a realistic indoor setting, where the transmissions of videos to specific receiver positions are successfully achieved, surpassing the capabilities of traditional programmable metasurfaces. We believe that the proposed programmable metasurface has great potentials in significantly empowering the wireless communications while addressing the challenges associated with the programmable metasurface's design and implementation.
format Preprint
id arxiv_https___arxiv_org_abs_2411_05690
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Multiple-partition cross-modulation programmable metasurface empowering wireless communications
Zhang, Jun Wei
Qi, Zhen Jie
Wu, Li Jie
Cao, Wan Wan
Gao, Xinxin
Fu, Zhi Hui
Chen, Jing Yu
Lv, Jie Ming
Wang, Zheng Xing
Wang, Si Ran
Wu, Jun Wei
Zhang, Zhen
Zhang, Jia Nan
Li, Hui Dong
Dai, Jun Yan
Cheng, Qiang
Cui, Tie Jun
Applied Physics
With the versatile manipulation capability, programmable metasurfaces are rapidly advancing in their intelligence, integration, and commercialization levels. However, as the programmable metasurfaces scale up, their control configuration becomes increasingly complicated, posing significant challenges and limitations. Here, we propose a multiple-partition cross-modulation (MPCM) programmable metasurface to enhance the wireless communication coverage with low hardware complexity. We firstly propose an innovative encoding scheme to multiply the control voltage vectors of row-column crossing, achieving high beamforming precision in free space while maintaining low control hardware complexity and reducing memory requirements for coding sequences. We then design and fabricate an MPCM programmable metasurface to confirm the effectiveness of the proposed encoding scheme. The simulated and experimental results show good agreements with the theoretically calculated outcomes in beam scanning across the E and H planes and in free-space beam pointing. The MPCM programmable metasurface offers strong flexibility and low complexity by allowing various numbers and combinations of partition items in modulation methods, catering to diverse precision demands in various scenarios. We demonstrate the performance of MPCM programmable metasurface in a realistic indoor setting, where the transmissions of videos to specific receiver positions are successfully achieved, surpassing the capabilities of traditional programmable metasurfaces. We believe that the proposed programmable metasurface has great potentials in significantly empowering the wireless communications while addressing the challenges associated with the programmable metasurface's design and implementation.
title Multiple-partition cross-modulation programmable metasurface empowering wireless communications
topic Applied Physics
url https://arxiv.org/abs/2411.05690