祝贺2022级硕士生谢磊撰写的有关柱群通道沸腾文章在国际权威期刊 Applied Thermal Engineering 上发表
- 发布时间：
- 2024-10-31
- 文章标题：
- 祝贺2022级硕士生谢磊撰写的有关柱群通道沸腾文章在国际权威期刊 Applied Thermal Engineering 上发表
- 内容：
2025年10月，2022级硕士生谢磊撰写的文章有关摇摆条件下硬尾柱群通道流动沸腾的文章在国际权威期刊 Applied Thermal Engineering 上发表。
论文题目： Experimental study on flow boiling heat transfer in rigid-tail rib-channel under rolling motion conditions
论文网址： https://doi.org/10.1016/j.applthermaleng.2024.124468
作 者： Lei Xie, Bin Hu, Yongsheng Xu, Mei Lin, Qiuwang Wang
摘 要：
This study proposes a novel addition of rigid fflamentous tail structure at the trailing edge of the ribs to enhance the heat transfer performance of ffow boiling in mini-channel under rolling conditions. The ffow boiling heat transfer characteristics of Novec649 in both rib-channel and rigid-tail rib-channel are experimentally investigated. Heat ffux, inlet ffow velocity, rolling angle and rolling period are considered as the variable parameters, which are 50 – 300 kW⋅m− 2 , 0.3 – 0.9 m⋅s − 1 , 0 – 15◦, 10 – 20 s, respectively. The experimental results show that the rigid-tail structure improves the heat transfer performance of the channels within the entire range of thermal parameters, while increasing the pressure drop at high heat ffux and/or high velocity. Compared with ribchannel, the rigid-tail structure exhibits the strongest enhancement in ffow boiling heat transfer performance under high heat ffux of qeff = 300 kW⋅m− 2 and high ffow velocity of vin = 0.9 m⋅s − 1 , and the heat transfer coefffcient can be increased by 6.93 % at most. And increasing the rolling angle or decreasing the rolling period will decrease the average wall temperature by a maximum of 1.94 ◦C and increase the heat transfer performance factor j by a maximum of 8 % at vin = 0.3 m⋅s − 1 , qeff = 200 – 300 kW⋅m− 2 for the rigid-tail rib-channel. Furthermore, the addition of a rigid-tail structure helps maintain smaller bubble sizes and a more uniform distribution in the mainstream region of the two-phase ffow.