Controlled Modulation of Intrinsic Electron Response in C/Co<sub>x</sub>T<sub>y</sub> Nanoplates Toward Multispectral Excitation Devices

Electromagnetic materials with adjustable dielectric and magnetic properties are constantly sought after in electronic and industrial fields. In this study, an innovative strategy that customizes anchored Co-based nanoparticles to optimize the electronic behaviors is proposed for the first time, enabling a controllable and high-efficiency evolution of the macroscopic electromagnetic response of Co-based (C/Co<sub>x</sub>T<sub>y</sub>) nanoplates across the X-ray, light in the solar band and gigahertz band. Specifically, in the gigahertz band, the C/Co and C/Co<sub>3</sub>Se<sub>4</sub> nanoplates with high-power loss capabilities can effectively attenuate and convert electromagnetic energy into heat energy, which not only prevents space electromagnetic radiation but also powers energy for various electromagnetic devices such as thermoelectric generators and microwave actuators. Moreover, multiband antennas and ultra-wideband bandstop filters are successfully achieved and flexibly tuned. Meanwhile, C/Co<sub>x</sub>T<sub>y</sub> nanoplates photo- and X-ray detectors are constructed successfully. Additionally, the C/CoTe nanoplate X-ray detector, featuring remarkable stability, sensitivity and penetrability, is successfully utilized to construct the interaction system integrating communication and imaging. In summary, this work offers an effective way for flexible regulation of multispectral electromagnetic response, significantly advancing the development of multispectral electromagnetic functional devices.

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Publication Details

Journal
Advanced Materials
Published
2025-03-13
DOI
https://doi.org/10.1002/adma.202501302
Citations
48
Primary Topic
Thermal Radiation and Cooling Technologies
Type
article
Field-Weighted Citation Impact
45.75

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article

Controlled Modulation of Intrinsic Electron Response in C/CoxTy Nanoplates Toward Multispectral Excitation Devices

Wen‐Qiang Cao, Jinlong Bai, Jin‐Cheng Shu, Lin Li et al.
48 citations
Advanced Materials
Thermal Radiation and Cooling Technologies
45.75
article

Controlled Modulation of Intrinsic Electron Response in C/CoxTy Nanoplates Toward Multispectral Excitation Devices

Wen‐Qiang Cao, Jinlong Bai, Jin‐Cheng Shu, Lin Li, Mao‐Sheng Cao, Xiao Wan, Mengqi Wang
article en
48 citations

Abstract

Electromagnetic materials with adjustable dielectric and magnetic properties are constantly sought after in electronic and industrial fields. In this study, an innovative strategy that customizes anchored Co-based nanoparticles to optimize the electronic behaviors is proposed for the first time, enabling a controllable and high-efficiency evolution of the macroscopic electromagnetic response of Co-based (C/Co<sub>x</sub>T<sub>y</sub>) nanoplates across the X-ray, light in the solar band and gigahertz band. Specifically, in the gigahertz band, the C/Co and C/Co<sub>3</sub>Se<sub>4</sub> nanoplates with high-power loss capabilities can effectively attenuate and convert electromagnetic energy into heat energy, which not only prevents space electromagnetic radiation but also powers energy for various electromagnetic devices such as thermoelectric generators and microwave actuators. Moreover, multiband antennas and ultra-wideband bandstop filters are successfully achieved and flexibly tuned. Meanwhile, C/Co<sub>x</sub>T<sub>y</sub> nanoplates photo- and X-ray detectors are constructed successfully. Additionally, the C/CoTe nanoplate X-ray detector, featuring remarkable stability, sensitivity and penetrability, is successfully utilized to construct the interaction system integrating communication and imaging. In summary, this work offers an effective way for flexible regulation of multispectral electromagnetic response, significantly advancing the development of multispectral electromagnetic functional devices.

Advanced MaterialsVol. 37(18)
Beijing Institute of Technology (CN), Harbin Normal University (CN)
National Natural Science Foundation of China
Affordable and clean energy
Openalex Percentile: Top 0%
Thermal Radiation and Cooling Technologies
45.75
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