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contributor authorChu, Lilin
contributor authorJi, Yulong
contributor authorMa, Hongbin
contributor authorLi, Yantao
contributor authorChang, Chao
contributor authorYu, Chunrong
contributor authorWang, Zongyu
date accessioned2022-02-04T21:58:45Z
date available2022-02-04T21:58:45Z
date copyright8/5/2020 12:00:00 AM
date issued2020
identifier issn1948-5085
identifier otheramr_072_04_040802.pdf
identifier urihttp://yetl.yabesh.ir/yetl1/handle/yetl/4274640
description abstractIn order to understand the heat transfer performance, startup, and fluid flow conditions of oscillating heat pipes (OHPs) with a hydraulic diameter far exceeding the maximum hydraulic diameter (MHD) defined by dh,max≤2σBo/(ρl−ρv)g, an experimental investigation on the OHP heat transfer performance and visualization was conducted. The effects of heat input, working fluid, and orientation on the oscillating motion and heat transfer performance of the investigated OHPs have been conducted. In addition, the detailed flow patterns of the tested OHPs were recorded by a high-speed camera from both vertical and horizontal orientations. Results show that the maximum hydraulic diameter, which can form a train of liquid plugs and vapor bubbles, which is essential for an OHP to function, depends on the heat input, working fluid, and orientation. At a power input of 1000 W, the OHP can still function well even when the tube diameter exceeds the MHD of 91.6%. This maximum hydraulic dimeter depends on the orientation. While the OHP with a dimeter far exceeding the MHD can still function, the heat transfer performance of the OHP in a vertical orientation is better than in a horizontal orientation.
publisherThe American Society of Mechanical Engineers (ASME)
titleExperimental Study on Oscillating Heat Pipe With a Hydraulic Diameter Far Exceeding the Maximum Hydraulic Diameter
typeJournal Paper
journal volume12
journal issue6
journal titleJournal of Thermal Science and Engineering Applications
identifier doi10.1115/1.4047708
journal fristpage061009-1
journal lastpage061009-29
page29
treeJournal of Thermal Science and Engineering Applications:;2020:;volume( 012 ):;issue: 006
contenttypeFulltext


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