基于VO2相变材料的可切换可扩展中红外宽带超表面自适应红外隐身吸收器

IF 4.1 2区 综合性期刊 Q1 MULTIDISCIPLINARY SCIENCES
Ye Yuan , Shaopei Wang , Mengdan Qian , Weiying Hou
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引用次数: 0

摘要

具有宽带可调性的动态热发射在能源和军事领域引起了越来越多的关注。本文提出了一种基于金属谐振元件和二氧化钒(VO2)相变材料薄膜的可热切换、可膨胀的宽带中红外发射超表面吸收材料。通过VO2的绝缘-金属跃迁,超表面在中红外光谱的“隐身”和“非隐身”状态之间切换,甚至可以实现吸收带宽和谐振峰的主动调谐。在室温下,吸收体在长波红外大气窗口中表现出近乎完美的宽带吸收。在高温下,吸收带向5 ~ 8 μm方向移动,而大气窗口带的发射率较低,有利于红外伪装和有效散热。所提出的超表面吸收材料具有简单的几何结构和广泛的红外光谱响应,在信息存储、红外隐身、热成像和探测器等热光子学领域具有广阔的应用前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Switchable and expandable mid-infrared broadband metasurface absorber for adaptive infrared stealth based on VO2 phase change materials

Switchable and expandable mid-infrared broadband metasurface absorber for adaptive infrared stealth based on VO2 phase change materials
Dynamic thermal emission with broadband tunability has attracted increasing interest in energy and military fields. Here, a thermally switchable and expandable metasurface absorber with broadband mid-infrared emission is proposed based on a metallic resonant element and vanadium dioxide (VO2) phase change material film. Through the insulating-metal transition of VO2, the metasurface switches between “stealth” and “non-stealth” states across the mid-infrared spectrum, and even active tuning of the absorption bandwidth and resonant peak can be achieved. At room temperature, the absorber shows near-perfect broadband absorption in the long-wave infrared atmospheric window. At high temperatures, the absorption band moves toward 5–8 μm while the atmospheric window bands present low emissivity, allowing infrared camouflage and effective heat dissipation. The proposed metasurface absorber has simple structural geometry and broad, switchable spectral response in the infrared region, showing promising applications in thermal photonics, including information storage, infrared stealth, thermal imaging, and detectors.
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来源期刊
iScience
iScience Multidisciplinary-Multidisciplinary
CiteScore
7.20
自引率
1.70%
发文量
1972
审稿时长
6 weeks
期刊介绍: Science has many big remaining questions. To address them, we will need to work collaboratively and across disciplines. The goal of iScience is to help fuel that type of interdisciplinary thinking. iScience is a new open-access journal from Cell Press that provides a platform for original research in the life, physical, and earth sciences. The primary criterion for publication in iScience is a significant contribution to a relevant field combined with robust results and underlying methodology. The advances appearing in iScience include both fundamental and applied investigations across this interdisciplinary range of topic areas. To support transparency in scientific investigation, we are happy to consider replication studies and papers that describe negative results. We know you want your work to be published quickly and to be widely visible within your community and beyond. With the strong international reputation of Cell Press behind it, publication in iScience will help your work garner the attention and recognition it merits. Like all Cell Press journals, iScience prioritizes rapid publication. Our editorial team pays special attention to high-quality author service and to efficient, clear-cut decisions based on the information available within the manuscript. iScience taps into the expertise across Cell Press journals and selected partners to inform our editorial decisions and help publish your science in a timely and seamless way.
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