.png){kind=icon}
返回
Pulse interfacial defrosting
.png){kind=icon}
PRE
AI
DOI：10.1063/1.5113845.png)
.png){kind=icon}
原文求助.png){kind=icon}
分享.png){kind=icon}
收藏
摘要
En 中文
Frost formation and ice accretion are major problems for a plethora of industries. Common defrosting and deicing techniques utilize energy-intensive mechanical actuation to dislodge ice/frost or heating methods to melt ice/frost from surfaces. Here, we develop an ultraefficient method to defrost/deice surfaces by spatially and temporally localizing thermal energy at the substrate-ice/frost interface. To remove ice/frost efficiently, it is beneficial only to melt the interfacial layer adhering the ice/frost to the solid surface by using a localized pulse of heat, allowing gravity or gas shear in conjunction with the ultrathin lubricating melt water layer to remove the ice/frost. To probe the physics of pulse defrosting, we first developed a transient numerical heat transfer model. Experimental validation of the model was achieved via pulse ( approximate to 100ms) joule heating of indium tin oxide on glass samples. Utilizing transient heat fluxes ranging from 10 to 100W/cm(2), spontaneous melting of the interfacial ice/frost layer was achieved, leading to rapid ice removal. We employed our validated model to outline design guidelines for pulse defrosting applications, showing <1% of the energy and <0.01% of the defrosting time needed when compared to conventional thermal-based defrosting methods.
Keyword:
SOURCE HEAT-PUMP
HOT-GAS BYPASS
PERFORMANCE
FROST
AI总结
对已上传原文的论文进行重点信息的提取，主要内容包括：简要概述、研究摘要、背景介绍、关键亮点、图文解析、展望与总结。
期刊
IF:
3.6
论文数:
10.4W
被引数:
17.8W
机构
引用论文
.png){kind=icon}
Work function of indium tin oxide transparent conductor measured by photoelectron spectroscopy光电子能谱法测量氧化铟锡透明导体的功函数
OAAI
OAAI分享收藏
查看更多内容