Ultra-efficient heat pipes enabled by nickel-graphene nanocomposite coatings: Concept and fundamentals

Heat pipes are a type of passive and efficient two-phase devices. Despite of its wide applications in solar collectors, electronic cooling and energy recovery systems, the heat pipe technology has been stagnant in last two decades. Though, numerous designs to enhance the evaporation and mass transpo...

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Published inCarbon (New York) Vol. 191; pp. 384 - 392
Main Authors Chang, Wei, Huang, Guanghan, Luo, Kai, Wang, Pengtao, Li, Chen
Format Journal Article
LanguageEnglish
Published New York Elsevier Ltd 01.05.2022
Elsevier BV
Subjects
Coatings
Condensation
Dropwise condensation
Energy recovery
Energy recovery systems
Evaporation
Evaporation rate
Evaporators
Feasibility studies
Geysers
Graphene
Heat conductivity
Heat exchangers
Heat pipe
Heat pipes
Heat recovery
Heat transfer
Liquid flow
Nanocomposites
Nickel-graphene
Pipes
Solar collectors
Thermal conductivity
Thermal resistance
Visualization
Visualization
Heat pipe
Dropwise condensation
Nickel-graphene
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Abstract Heat pipes are a type of passive and efficient two-phase devices. Despite of its wide applications in solar collectors, electronic cooling and energy recovery systems, the heat pipe technology has been stagnant in last two decades. Though, numerous designs to enhance the evaporation and mass transportation have been explored since its discovery, the intrinsic limitation induced by filmwise condensation (FWC) in the condenser section has not been effectively addressed. In this study, sustainable dropwise condensation (DWC), which can be 10 folds more efficient than the traditional FWC, was successfully induced on the condenser of heat pipes. The effective thermal conductivity (keff) of wickless heat pipes can be enhanced more than 7 times higher than the one without Ni-Gr nanocomposite coatings. Besides the drastically reduced thermal resistance resulted from DWC by fundamentally altering continuous film liquid flow into discrete droplet sliding, the liquid return from the condenser to the evaporator by gravity has been significantly accelerated. The new liquid return mode can also effectively manage the instability of geyser boiling with enhanced evaporation rate in the evaporator section and further, promote the heat pipe keff. This study shows a new feasibility to elevate heat pipe technologies to the next level. [Display omitted]
AbstractList Heat pipes are a type of passive and efficient two-phase devices. Despite of its wide applications in solar collectors, electronic cooling and energy recovery systems, the heat pipe technology has been stagnant in last two decades. Though, numerous designs to enhance the evaporation and mass transportation have been explored since its discovery, the intrinsic limitation induced by filmwise condensation (FWC) in the condenser section has not been effectively addressed. In this study, sustainable dropwise condensation (DWC), which can be 10 folds more efficient than the traditional FWC, was successfully induced on the condenser of heat pipes. The effective thermal conductivity (keff) of wickless heat pipes can be enhanced more than 7 times higher than the one without Ni-Gr nanocomposite coatings. Besides the drastically reduced thermal resistance resulted from DWC by fundamentally altering continuous film liquid flow into discrete droplet sliding, the liquid return from the condenser to the evaporator by gravity has been significantly accelerated. The new liquid return mode can also effectively manage the instability of geyser boiling with enhanced evaporation rate in the evaporator section and further, promote the heat pipe keff. This study shows a new feasibility to elevate heat pipe technologies to the next level.
Heat pipes are a type of passive and efficient two-phase devices. Despite of its wide applications in solar collectors, electronic cooling and energy recovery systems, the heat pipe technology has been stagnant in last two decades. Though, numerous designs to enhance the evaporation and mass transportation have been explored since its discovery, the intrinsic limitation induced by filmwise condensation (FWC) in the condenser section has not been effectively addressed. In this study, sustainable dropwise condensation (DWC), which can be 10 folds more efficient than the traditional FWC, was successfully induced on the condenser of heat pipes. The effective thermal conductivity (keff) of wickless heat pipes can be enhanced more than 7 times higher than the one without Ni-Gr nanocomposite coatings. Besides the drastically reduced thermal resistance resulted from DWC by fundamentally altering continuous film liquid flow into discrete droplet sliding, the liquid return from the condenser to the evaporator by gravity has been significantly accelerated. The new liquid return mode can also effectively manage the instability of geyser boiling with enhanced evaporation rate in the evaporator section and further, promote the heat pipe keff. This study shows a new feasibility to elevate heat pipe technologies to the next level. [Display omitted]
Author Li, Chen
Luo, Kai
Huang, Guanghan
Chang, Wei
Wang, Pengtao
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CitedBy_id crossref_primary_10_1016_j_tsep_2023_101860
crossref_primary_10_1002_dro2_43
crossref_primary_10_1039_D4EE01235F
crossref_primary_10_1002_admi_202201687
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Heat pipe
Dropwise condensation
Nickel-graphene
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Snippet Heat pipes are a type of passive and efficient two-phase devices. Despite of its wide applications in solar collectors, electronic cooling and energy recovery...
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elsevier
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StartPage 384
SubjectTerms Coatings
Condensation
Dropwise condensation
Energy recovery
Energy recovery systems
Evaporation
Evaporation rate
Evaporators
Feasibility studies
Geysers
Graphene
Heat conductivity
Heat exchangers
Heat pipe
Heat pipes
Heat recovery
Heat transfer
Liquid flow
Nanocomposites
Nickel-graphene
Pipes
Solar collectors
Thermal conductivity
Thermal resistance
Visualization
Title Ultra-efficient heat pipes enabled by nickel-graphene nanocomposite coatings: Concept and fundamentals
URI https://dx.doi.org/10.1016/j.carbon.2022.01.064
https://www.proquest.com/docview/2651850410/abstract/
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