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Mn0.6Ni1.4Co2Oy Micro-Nano Tower Structure with Tunable Spectral Selectivity Interface for Infrared Stealth and Solar Selective Coating Application

Progress in Organic Coatings(2023)

Nanjing Univ Aeronaut & Astronaut

Cited 7|Views20
Abstract
In order to make full use of solar energy and solve the problem of functional incompatibility between solar and infrared spectra, the present work has cleverly aimed at the problem by designing Mn0.6Ni1.4Co2Oy multifunctional interface. The Mn0.6Ni1.4Co2Oy coating was obtained by a simple vacuum spraying method. It was found that the coatings prepared with the appropriate amount of MNC/resin ratio (5:5) possessed the high solar absorptivity (0.915) and low infrared emittance (0.245) at ambient temperatures, as well as excellent heat collecting properties, which suggests that the structure of the Mn0.6Ni1.4Co2Oy is maximally preserved. Notably, the DSC results confirm that the introduction of Mn0.6Ni1.4Co2Oy into the resin can strengthen the thermal stability of the coating, which is mainly attributed to the fact that Mn0.6Ni1.4Co2Oy can effectively prevent the chain segment movement of the resin. Furthermore, the addition of low-emissivity aluminum powder further reduced the emissivity of the coating to 0.142 and the absorbance/emissivity ratio to 6.22 at room temperature. The coating demonstrated remarkable thermal stability and infrared stealth performance even at 300 degrees C, meeting the basic requirements of solar selective absorption. This work provides a low-cost and simple spray method for fabricating Mn0.6Ni1.4Co2Oy solar selective absorption coating with great potential in high temperature infrared stealth applications.
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Key words
Tunable spectral interface,micro-nano tower layer,Solar selective absorption coating,Infrared stealth,Spraying method
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要点】:本文设计了一种具有可调光谱选择性的Mn0.6Ni1.4Co2Oy微纳米塔结构界面,实现了红外隐身和太阳能选择吸收涂层功能,创新性地解决了太阳能与红外光谱功能不兼容的问题。

方法】:通过简单的真空喷镀方法制备Mn0.6Ni1.4Co2Oy涂层,通过调节MNC/resin比例实现了涂层的光谱选择性。

实验】:在适当的MNC/resin比例(5:5)下制备的涂层显示出高太阳吸收率(0.915)和低红外发射率(0.245),并使用DSC测试验证了其热稳定性,同时添加低发射率铝粉进一步降低了涂层的发射率至0.142,吸收率/发射率比值达到6.22,实验结果证明了该涂层在300℃下仍具有良好的热稳定性和红外隐身性能,满足太阳能选择吸收的基本要求。数据集名称未在文中提及。