Vanadium dioxide-based metasurface for temperature-adaptive radiative cooling

As a passive cooling method, radiative cooling is intrinsically energy-efficient and environmentally friendly because it consumes no electric energy and releases no carbon emissions. Smart radiative cooling introduces a new dimension to the current research playground, especially with the use of vanadium dioxide (VO2) to enable passively adaptive temperature-varying response. Here, we propose a temperature-adaptive radiative cooling metasurface based on a two-size VO2 microstructure for broadband absorption in the 8 to 13 μm atmospheric window, showing a cooling power contrast of ∼100 W/m2 around the phase transition temperature. We show the dynamic capability of the next-generation multifunctional and intelligent designs and devices.

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Publication Details

Journal
Optical Engineering
Published
2025-02-13
DOI
https://doi.org/10.1117/1.oe.64.2.027102
Citations
2
Primary Topic
Thermal Radiation and Cooling Technologies
Type
article
Field-Weighted Citation Impact
1.91
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article

Vanadium dioxide-based metasurface for temperature-adaptive radiative cooling

Rong He, Rongjun Zhang, Junpeng Guo, Haotian Zhang et al.
2 citations
Optical Engineering
Thermal Radiation and Cooling Technologies
1.91
article

Vanadium dioxide-based metasurface for temperature-adaptive radiative cooling

Rong He, Rongjun Zhang, Junpeng Guo, Haotian Zhang, Xiaojie Sun, Yuxiang Zheng, Liang‐Yao Chen
article en
2 citations

Abstract

As a passive cooling method, radiative cooling is intrinsically energy-efficient and environmentally friendly because it consumes no electric energy and releases no carbon emissions. Smart radiative cooling introduces a new dimension to the current research playground, especially with the use of vanadium dioxide (VO2) to enable passively adaptive temperature-varying response. Here, we propose a temperature-adaptive radiative cooling metasurface based on a two-size VO2 microstructure for broadband absorption in the 8 to 13 μm atmospheric window, showing a cooling power contrast of ∼100 W/m2 around the phase transition temperature. We show the dynamic capability of the next-generation multifunctional and intelligent designs and devices.

Optical EngineeringVol. 64(02)
Fudan University (CN), University of Alabama in Huntsville (US)
Openalex Percentile: Top 17%
Thermal Radiation and Cooling Technologies
1.91
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