CMOS multifunctional programmable metachip for terahertz-integrated sensing and communication

Metachips are formed by incorporating periodically arranged meta-atoms with on-chip circuits, enabling electromagnetic wave manipulation at the single–chip-tile level and holding great promise for terahertz applications. In this work, we present a complementary metal-oxide semiconductor (CMOS)–based terahertz-programmable metachip and demonstrate its proof of concept for terahertz-integrated sensing and communication (T-ISAC) with array scalability. Fabricated using an industry-standard 55-nanometer CMOS process, the proposed metachip realizes terahertz wave modulation at dual frequencies near 410 and 520 gigahertz in both reflection and transmission (transflection) modes. The metachip array supports multichannel terahertz communication by addressing distinct modulation signals to each chip tile. By harnessing the array scalability, the metachip array facilitates motion tracking of metallic objects while enabling the detection of the terahertz fingerprint material α-lactose against glucose. The proposed CMOS metachip represents a viable pathway toward integrated system-on-chip terahertz hardware solutions for scalable T-ISAC applications.

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Publication Details

Journal
Science Advances
Published
2026-09-30
DOI
https://doi.org/10.1126/sciadv.aeb5047
Primary Topic
Molecular Communication and Nanonetworks
Type
article
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article

CMOS multifunctional programmable metachip for terahertz-integrated sensing and communication

Jingbo Wu, 邓焕庭, Dixian Zhao, Biaobing Jin et al.
Science Advances
Molecular Communication and Nanonetworks
article

CMOS multifunctional programmable metachip for terahertz-integrated sensing and communication

Jingbo Wu, 邓焕庭, Dixian Zhao, Biaobing Jin, Kaizhe Guo, Kebin Fan, Ze Shen, Xiaohu You, Xingliang Tian, Haitao Jing
article en

Abstract

Metachips are formed by incorporating periodically arranged meta-atoms with on-chip circuits, enabling electromagnetic wave manipulation at the single–chip-tile level and holding great promise for terahertz applications. In this work, we present a complementary metal-oxide semiconductor (CMOS)–based terahertz-programmable metachip and demonstrate its proof of concept for terahertz-integrated sensing and communication (T-ISAC) with array scalability. Fabricated using an industry-standard 55-nanometer CMOS process, the proposed metachip realizes terahertz wave modulation at dual frequencies near 410 and 520 gigahertz in both reflection and transmission (transflection) modes. The metachip array supports multichannel terahertz communication by addressing distinct modulation signals to each chip tile. By harnessing the array scalability, the metachip array facilitates motion tracking of metallic objects while enabling the detection of the terahertz fingerprint material α-lactose against glucose. The proposed CMOS metachip represents a viable pathway toward integrated system-on-chip terahertz hardware solutions for scalable T-ISAC applications.

Science AdvancesVol. 12(40)
Southeast University (BD), Purple Mountain Laboratories (CN), Nanjing University (CN)
Industry, innovation and infrastructure
Openalex Percentile: Top 22%
Molecular Communication and Nanonetworks
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CMOS multifunctional programmable metachip for terahertz-integrated sensing and communication — Jingbo Wu, 邓焕庭, et al. · Science Advances (2026) | TGRS Research Map | TGRS