Near-unity broadband omnidirectional emissivity via femtosecond laser surface processing

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作者
Andrew Reicks
Alfred Tsubaki
Mark Anderson
Jace Wieseler
Larousse Khosravi Khorashad
Jeffrey E. Shield
George Gogos
Dennis Alexander
Christos Argyropoulos
Craig Zuhlke
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[1] University of Nebraska-Lincoln,Department of Electrical & Computer Engineering
[2] University of Nebraska-Lincoln,Department of Mechanical & Materials Engineering
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It is very challenging to achieve near perfect absorption or emission that is both broadband and omnidirectional while utilizing a scalable fabrication process. Femtosecond laser surface processing is an emerging low-cost and large-scale manufacturing technique used to directly and permanently modify the surface properties of a material. The versatility of this technique to produce tailored surface properties has resulted in a rapidly growing number of applications. Here, we demonstrate near perfect, broadband, omnidirectional emissivity from aluminum surfaces by tuning the laser surface processing parameters including fluence, pulse count, and the ambient gas. Full-wave simulations and experimental results prove that the obtained increase in emissivity is mainly a result of two distinct features produced by femtosecond laser surface processing: the introduction of microscale surface features and the thick oxide layer. This technique leads to functionalized metallic surfaces that are ideal for emerging applications, such as passive radiative cooling and thermal management of spacecraft.
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