Highly solar reflectance and infrared transparent porous coating for non-contact heat dissipations
Passive daytime radiative cooling (PDRC) can dissipate heat to outer space with high solar reflectance (R¯solar) and thermal emittance (ε¯LWIR) in the atmospheric transmission window. However, for the non-contact heat dissipation, besides the high R¯solar, a high infrared transmittance (τ¯LWIR) is n...
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| Published in | iScience Vol. 25; no. 8; p. 104726 |
|---|---|
| Main Authors | , , |
| Format | Journal Article |
| Language | English |
| Published |
Elsevier Inc
19.08.2022
Elsevier |
| Subjects | |
| Online Access | Get full text |
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| Abstract | Passive daytime radiative cooling (PDRC) can dissipate heat to outer space with high solar reflectance (R¯solar) and thermal emittance (ε¯LWIR) in the atmospheric transmission window. However, for the non-contact heat dissipation, besides the high R¯solar, a high infrared transmittance (τ¯LWIR) is needed to directly emit thermal radiation through the IR-transparent coating to outer space. In this work, An IR-transparent porous PE (P-PE) coating with R¯solar= 0.96 and τ¯LWIR= 0.88 was prepared for non-contact heat dissipations. Under the direct sunlight of 860 W m−2, the IR-transparent coating obtained a 4°C lower heater temperature than the normal PDRC coating under the same condition. In addition, the spectral reflectance of the P-PE coating after immersing in air or water changed little, which showed excellent durability for long-term outdoor applications. These results indicate the P-PE coating can be a potential IR-transparent coating for non-contact heat dissipations under direct sunlight.
[Display omitted]
•Infrared transparent coating was used for non-contact heat dissipations•High solar reflectance R¯solar and IR-transmittance τ¯LWIR can be 0.96 and 0.88•IR transparent coating obtained a 4°C lower heater temperature than normal coating
Energy sustainability; Thermal engineering; Thermal property |
|---|---|
| AbstractList | Passive daytime radiative cooling (PDRC) can dissipate heat to outer space with high solar reflectance
(
R
¯
solar
)
and thermal emittance
(
ε
¯
LWIR
)
in the atmospheric transmission window. However, for the non-contact heat dissipation, besides the high
R
¯
solar
, a high infrared transmittance
(
τ
¯
LWIR
)
is needed to directly emit thermal radiation through the IR-transparent coating to outer space. In this work, An IR-transparent porous PE (P-PE) coating with
R
¯
solar
= 0.96 and
τ
¯
LWIR
= 0.88 was prepared for non-contact heat dissipations. Under the direct sunlight of 860 W m
−2
, the IR-transparent coating obtained a 4°C lower heater temperature than the normal PDRC coating under the same condition. In addition, the spectral reflectance of the P-PE coating after immersing in air or water changed little, which showed excellent durability for long-term outdoor applications. These results indicate the P-PE coating can be a potential IR-transparent coating for non-contact heat dissipations under direct sunlight.
•
Infrared transparent coating was used for non-contact heat dissipations
•
High solar reflectance
R
¯
solar
and IR-transmittance
τ
¯
LWIR
can be 0.96 and 0.88
•
IR transparent coating obtained a 4°C lower heater temperature than normal coating
Energy sustainability; Thermal engineering; Thermal property Passive daytime radiative cooling (PDRC) can dissipate heat to outer space with high solar reflectance (R¯solar) and thermal emittance (ε¯LWIR) in the atmospheric transmission window. However, for the non-contact heat dissipation, besides the high R¯solar, a high infrared transmittance (τ¯LWIR) is needed to directly emit thermal radiation through the IR-transparent coating to outer space. In this work, An IR-transparent porous PE (P-PE) coating with R¯solar= 0.96 and τ¯LWIR= 0.88 was prepared for non-contact heat dissipations. Under the direct sunlight of 860 W m−2, the IR-transparent coating obtained a 4°C lower heater temperature than the normal PDRC coating under the same condition. In addition, the spectral reflectance of the P-PE coating after immersing in air or water changed little, which showed excellent durability for long-term outdoor applications. These results indicate the P-PE coating can be a potential IR-transparent coating for non-contact heat dissipations under direct sunlight. [Display omitted] •Infrared transparent coating was used for non-contact heat dissipations•High solar reflectance R¯solar and IR-transmittance τ¯LWIR can be 0.96 and 0.88•IR transparent coating obtained a 4°C lower heater temperature than normal coating Energy sustainability; Thermal engineering; Thermal property Passive daytime radiative cooling (PDRC) can dissipate heat to outer space with high solar reflectance ( R ¯ solar ) and thermal emittance ( ε ¯ LWIR ) in the atmospheric transmission window. However, for the non-contact heat dissipation, besides the high R ¯ solar , a high infrared transmittance ( τ ¯ LWIR ) is needed to directly emit thermal radiation through the IR-transparent coating to outer space. In this work, An IR-transparent porous PE (P-PE) coating with R ¯ solar = 0.96 and τ ¯ LWIR = 0.88 was prepared for non-contact heat dissipations. Under the direct sunlight of 860 W m-2, the IR-transparent coating obtained a 4°C lower heater temperature than the normal PDRC coating under the same condition. In addition, the spectral reflectance of the P-PE coating after immersing in air or water changed little, which showed excellent durability for long-term outdoor applications. These results indicate the P-PE coating can be a potential IR-transparent coating for non-contact heat dissipations under direct sunlight.Passive daytime radiative cooling (PDRC) can dissipate heat to outer space with high solar reflectance ( R ¯ solar ) and thermal emittance ( ε ¯ LWIR ) in the atmospheric transmission window. However, for the non-contact heat dissipation, besides the high R ¯ solar , a high infrared transmittance ( τ ¯ LWIR ) is needed to directly emit thermal radiation through the IR-transparent coating to outer space. In this work, An IR-transparent porous PE (P-PE) coating with R ¯ solar = 0.96 and τ ¯ LWIR = 0.88 was prepared for non-contact heat dissipations. Under the direct sunlight of 860 W m-2, the IR-transparent coating obtained a 4°C lower heater temperature than the normal PDRC coating under the same condition. In addition, the spectral reflectance of the P-PE coating after immersing in air or water changed little, which showed excellent durability for long-term outdoor applications. These results indicate the P-PE coating can be a potential IR-transparent coating for non-contact heat dissipations under direct sunlight. Passive daytime radiative cooling (PDRC) can dissipate heat to outer space with high solar reflectance (R¯solar) and thermal emittance (ε¯LWIR) in the atmospheric transmission window. However, for the non-contact heat dissipation, besides the high R¯solar, a high infrared transmittance (τ¯LWIR) is needed to directly emit thermal radiation through the IR-transparent coating to outer space. In this work, An IR-transparent porous PE (P-PE) coating with R¯solar= 0.96 and τ¯LWIR= 0.88 was prepared for non-contact heat dissipations. Under the direct sunlight of 860 W m−2, the IR-transparent coating obtained a 4°C lower heater temperature than the normal PDRC coating under the same condition. In addition, the spectral reflectance of the P-PE coating after immersing in air or water changed little, which showed excellent durability for long-term outdoor applications. These results indicate the P-PE coating can be a potential IR-transparent coating for non-contact heat dissipations under direct sunlight. |
| ArticleNumber | 104726 |
| Author | Yan, Hongjie Chen, Meijie Pang, Dan |
| Author_xml | – sequence: 1 givenname: Meijie orcidid: 0000-0001-5742-4160 surname: Chen fullname: Chen, Meijie email: chenmeijie@csu.edu.cn organization: School of Energy Science and Engineering, Central South University, Changsha 410083, China – sequence: 2 givenname: Dan surname: Pang fullname: Pang, Dan organization: School of Energy Science and Engineering, Central South University, Changsha 410083, China – sequence: 3 givenname: Hongjie surname: Yan fullname: Yan, Hongjie email: s-rfy@csu.edu.cn organization: School of Energy Science and Engineering, Central South University, Changsha 410083, China |
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| Title | Highly solar reflectance and infrared transparent porous coating for non-contact heat dissipations |
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