Recurrent Filmwise and Dropwise Condensation on a Beetle Mimetic Surface
Vapor condensation plays a key role in a wide range of industrial applications including power generation, thermal management, water harvesting and desalination. Fast droplet nucleation and efficient droplet departure as well as low interfacial thermal resistance are important factors that determine...
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| Published in | ACS nano Vol. 9; no. 1; pp. 71 - 81 |
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| Main Authors | , , , , |
| Format | Journal Article |
| Language | English |
| Published |
United States
American Chemical Society
27.01.2015
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| Subjects | |
| Online Access | Get full text |
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| Abstract | Vapor condensation plays a key role in a wide range of industrial applications including power generation, thermal management, water harvesting and desalination. Fast droplet nucleation and efficient droplet departure as well as low interfacial thermal resistance are important factors that determine the thermal performances of condensation; however, these properties have conflicting requirements on the structural roughness and surface chemistry of the condensing surface or condensation modes (e.g., filmwise vs dropwise). Despite intensive efforts over the past few decades, almost all studies have focused on the dropwise condensation enabled by superhydrophobic surfaces. In this work, we report the development of a bioinspired hybrid surface with high wetting contrast that allows for seamless integration of filmwise and dropwise condensation modes. We show that the synergistic cooperation in the observed recurrent condensation modes leads to improvements in all aspects of heat transfer properties including droplet nucleation density, growth rate, and self-removal, as well as overall heat transfer coefficient. Moreover, we propose an analytical model to optimize the surface morphological features for dramatic heat transfer enhancement. |
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| AbstractList | Vapor condensation plays a key role in a wide range of industrial applications including power generation, thermal management, water harvesting and desalination. Fast droplet nucleation and efficient droplet departure as well as low interfacial thermal resistance are important factors that determine the thermal performances of condensation; however, these properties have conflicting requirements on the structural roughness and surface chemistry of the condensing surface or condensation modes (e.g., filmwise vs dropwise). Despite intensive efforts over the past few decades, almost all studies have focused on the dropwise condensation enabled by superhydrophobic surfaces. In this work, we report the development of a bioinspired hybrid surface with high wetting contrast that allows for seamless integration of filmwise and dropwise condensation modes. We show that the synergistic cooperation in the observed recurrent condensation modes leads to improvements in all aspects of heat transfer properties including droplet nucleation density, growth rate, and self-removal, as well as overall heat transfer coefficient. Moreover, we propose an analytical model to optimize the surface morphological features for dramatic heat transfer enhancement. Vapor condensation plays a key role in a wide range of industrial applications including power generation, thermal management, water harvesting and desalination. Fast droplet nucleation and efficient droplet departure as well as low interfacial thermal resistance are important factors that determine the thermal performances of condensation; however, these properties have conflicting requirements on the structural roughness and surface chemistry of the condensing surface or condensation modes (e.g., filmwise vs dropwise). Despite intensive efforts over the past few decades, almost all studies have focused on the dropwise condensation enabled by superhydrophobic surfaces. In this work, we report the development of a bioinspired hybrid surface with high wetting contrast that allows for seamless integration of filmwise and dropwise condensation modes. We show that the synergistic cooperation in the observed recurrent condensation modes leads to improvements in all aspects of heat transfer properties including droplet nucleation density, growth rate, and self-removal, as well as overall heat transfer coefficient. Moreover, we propose an analytical model to optimize the surface morphological features for dramatic heat transfer enhancement. Keywords: filmwise condensation; dropwise condensation; nanostructure; heterogeneous wettability; heat transfer enhancement Vapor condensation plays a key role in a wide range of industrial applications including power generation, thermal management, water harvesting and desalination. Fast droplet nucleation and efficient droplet departure as well as low interfacial thermal resistance are important factors that determine the thermal performances of condensation; however, these properties have conflicting requirements on the structural roughness and surface chemistry of the condensing surface or condensation modes (e.g., filmwise vs dropwise). Despite intensive efforts over the past few decades, almost all studies have focused on the dropwise condensation enabled by superhydrophobic surfaces. In this work, we report the development of a bioinspired hybrid surface with high wetting contrast that allows for seamless integration of filmwise and dropwise condensation modes. We show that the synergistic cooperation in the observed recurrent condensation modes leads to improvements in all aspects of heat transfer properties including droplet nucleation density, growth rate, and self-removal, as well as overall heat transfer coefficient. Moreover, we propose an analytical model to optimize the surface morphological features for dramatic heat transfer enhancement.Vapor condensation plays a key role in a wide range of industrial applications including power generation, thermal management, water harvesting and desalination. Fast droplet nucleation and efficient droplet departure as well as low interfacial thermal resistance are important factors that determine the thermal performances of condensation; however, these properties have conflicting requirements on the structural roughness and surface chemistry of the condensing surface or condensation modes (e.g., filmwise vs dropwise). Despite intensive efforts over the past few decades, almost all studies have focused on the dropwise condensation enabled by superhydrophobic surfaces. In this work, we report the development of a bioinspired hybrid surface with high wetting contrast that allows for seamless integration of filmwise and dropwise condensation modes. We show that the synergistic cooperation in the observed recurrent condensation modes leads to improvements in all aspects of heat transfer properties including droplet nucleation density, growth rate, and self-removal, as well as overall heat transfer coefficient. Moreover, we propose an analytical model to optimize the surface morphological features for dramatic heat transfer enhancement. |
| Author | Yao, Shuhuai Hou, Youmin Yu, Miao Chen, Xuemei Wang, Zuankai |
| AuthorAffiliation | Department of Mechanical and Biomedical Engineering The Hong Kong University of Science and Technology City University of Hong Kong Department of Mechanical and Aerospace Engineering Bioengineering Graduate Program |
| AuthorAffiliation_xml | – name: Department of Mechanical and Biomedical Engineering – name: The Hong Kong University of Science and Technology – name: Department of Mechanical and Aerospace Engineering – name: Bioengineering Graduate Program – name: City University of Hong Kong |
| Author_xml | – sequence: 1 givenname: Youmin surname: Hou fullname: Hou, Youmin – sequence: 2 givenname: Miao surname: Yu fullname: Yu, Miao – sequence: 3 givenname: Xuemei surname: Chen fullname: Chen, Xuemei – sequence: 4 givenname: Zuankai surname: Wang fullname: Wang, Zuankai email: meshyao@ust.hk, zuanwang@cityu.edu.hk – sequence: 5 givenname: Shuhuai surname: Yao fullname: Yao, Shuhuai email: meshyao@ust.hk, zuanwang@cityu.edu.hk |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/25482594$$D View this record in MEDLINE/PubMed |
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| Snippet | Vapor condensation plays a key role in a wide range of industrial applications including power generation, thermal management, water harvesting and... |
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| SubjectTerms | Animals Biomimetics - methods Coleoptera Condensing Density Droplets Heat transfer Hot Temperature Nanostructure Nanotechnology - methods Nucleation Roughness Volatilization Wettability |
| Title | Recurrent Filmwise and Dropwise Condensation on a Beetle Mimetic Surface |
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