Precision Measurements of Temperature‐Dependent and Nonequilibrium Thermal Emitters

Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy harvesting, radiative cooling, and thermal camouflage has recently led to renewed research interest in this topic. However, accurate and precise measure...

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Published inLaser & photonics reviews Vol. 14; no. 8
Main Authors Xiao, Yuzhe, Wan, Chenghao, Shahsafi, Alireza, Salman, Jad, Yu, Zhaoning, Wambold, Raymond, Mei, Hongyan, Perez, Bryan E. Rubio, Derdeyn, William, Yao, Chunhui, Kats, Mikhail A.
Format Journal Article
LanguageEnglish
Published Weinheim Wiley Subscription Services, Inc 01.08.2020
Wiley Blackwell (John Wiley & Sons)
Subjects
Camouflage
Electromagnetic radiation
Emitters
Energy harvesting
FTIR
infrared spectroscopy
Low temperature
Temperature dependence
Thermal emission
thermal‐emission measurement
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Abstract Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy harvesting, radiative cooling, and thermal camouflage has recently led to renewed research interest in this topic. However, accurate and precise measurements of thermal emission in a laboratory setting can be challenging in part due to the presence of background emission from the surrounding environment and the measurement instrument itself. This problem is especially acute for thermal emitters that have unconventional temperature dependence, operate at low temperatures, or are out of equilibrium. In this paper, general procedures are described, recommended, and demonstrated for thermal‐emission measurements that can accommodate such unconventional thermal emitters. Thermal‐emission measurements can be challenging because of the presence of background emission from the surrounding environment and the instrument. This is especially the case for temperature‐dependent and nonequilibrium thermal emitters. This paper describes and demonstrates procedures for measurement and analysis that can accommodate such unconventional thermal emitters.
AbstractList Abstract Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy harvesting, radiative cooling, and thermal camouflage has recently led to renewed research interest in this topic. However, accurate and precise measurements of thermal emission in a laboratory setting can be challenging in part due to the presence of background emission from the surrounding environment and the measurement instrument itself. This problem is especially acute for thermal emitters that have unconventional temperature dependence, operate at low temperatures, or are out of equilibrium. In this paper, general procedures are described, recommended, and demonstrated for thermal‐emission measurements that can accommodate such unconventional thermal emitters.
Abstract Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy harvesting, radiative cooling, and thermal camouflage has recently led to renewed research interest in this topic. However, accurate and precise measurements of thermal emission in a laboratory setting can be challenging in part due to the presence of background emission from the surrounding environment and the measurement instrument itself. This problem is especially acute for thermal emitters that have unconventional temperature dependence, operate at low temperatures, or are out of equilibrium. In this paper, general procedures are described, recommended, and demonstrated for thermal‐emission measurements that can accommodate such unconventional thermal emitters.
Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy harvesting, radiative cooling, and thermal camouflage has recently led to renewed research interest in this topic. However, accurate and precise measurements of thermal emission in a laboratory setting can be challenging in part due to the presence of background emission from the surrounding environment and the measurement instrument itself. This problem is especially acute for thermal emitters that have unconventional temperature dependence, operate at low temperatures, or are out of equilibrium. In this paper, general procedures are described, recommended, and demonstrated for thermal‐emission measurements that can accommodate such unconventional thermal emitters. Thermal‐emission measurements can be challenging because of the presence of background emission from the surrounding environment and the instrument. This is especially the case for temperature‐dependent and nonequilibrium thermal emitters. This paper describes and demonstrates procedures for measurement and analysis that can accommodate such unconventional thermal emitters.
Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy harvesting, radiative cooling, and thermal camouflage has recently led to renewed research interest in this topic. However, accurate and precise measurements of thermal emission in a laboratory setting can be challenging in part due to the presence of background emission from the surrounding environment and the measurement instrument itself. This problem is especially acute for thermal emitters that have unconventional temperature dependence, operate at low temperatures, or are out of equilibrium. In this paper, general procedures are described, recommended, and demonstrated for thermal‐emission measurements that can accommodate such unconventional thermal emitters.
Author Perez, Bryan E. Rubio
Wan, Chenghao
Shahsafi, Alireza
Salman, Jad
Mei, Hongyan
Yao, Chunhui
Kats, Mikhail A.
Yu, Zhaoning
Xiao, Yuzhe
Wambold, Raymond
Derdeyn, William
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Snippet Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy harvesting,...
Abstract Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy...
Abstract Thermal emission is the radiation of electromagnetic waves from hot objects. The promise of thermal‐emission engineering for applications in energy...
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SubjectTerms Camouflage
Electromagnetic radiation
Emitters
Energy harvesting
FTIR
infrared spectroscopy
Low temperature
Temperature dependence
Thermal emission
thermal‐emission measurement
Title Precision Measurements of Temperature‐Dependent and Nonequilibrium Thermal Emitters
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Flpor.201900443
https://www.proquest.com/docview/2433216150
https://www.osti.gov/biblio/1633479
Volume 14
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