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Tailored nanoporous architecture in flexible polymeric aerogel enabling ultrabroadband PHz (VL)-THz-GHz wireless communication.

Created on 22 Aug 2026

Authors

Haoyu Ma, Haiyu Wang, Rongli Zhu, Dengyang Chen, Le Xi, Jin Leng, Qiwu Shi, Junlong Yang, Pengjian Gong, Tomoyuki Yokota, Guangxian Li, Takao Someya, Chul B Park

Published in

Science advances. Volume 12. Issue 34. Pages eaec4385. Aug 21, 2026. Epub Aug 21, 2026.

Abstract

Ultrabroadband electromagnetic wave (EMW) transparent materials across petahertz (PHz; visible light range), terahertz (THz), and gigahertz (GHz) range are crucial for sixth-generation (6G) to XG wireless communication. However, current EMW transparent materials cannot meet the design requirements for ultrabroadband PHz-THz-GHz antenna devices. In this study, we report the design and fabrication of flexible polyimide aerogel (PIA) capable of PHz-THz-GHz transmission based on a hybrid cross-linking strategy: (i) The combination of chemical and physical cross-linking enables the construction of a highly porous topology, yielding an ultralow dielectric constant (Dk ∼ 1.1) and improved impedance matching to minimize EMW interfacial reflection; (ii) coupling the hybrid cross-linking network with supercritical CO2 (scCO2) drying produces a uniform nanoporous architecture, effectively suppressing EMW Mie scattering; (iii) hybrid cross-linking strategy integrated with fluoride functional group modification design further reduces multiband EMW absorption across the PHz-THz-GHz range. Meanwhile, these aerogel materials demonstrate outstanding environmental stability and mechanical robustness, enabling their use in extended application scenarios. Consequently, an ultrabroadband PHz-GHz antenna was fabricated using the PIA material as the transmission interface, demonstrating continuous wireless communication even when the low-frequency GHz band is partially blocked by maintaining signal transmission through the high-frequency PHz band.

PMID:
42627882
Bibliographic data and abstract were imported from PubMed on 22 Aug 2026.

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