Numerical and Experimental Study of Heat Transfer Enhancement for Horizontal Blowing Panel-Type Radiators with Multiple Fans

To improve the thermal performance of air-cooled panel-type radiators for transformers, a multi-fan horizontal blowing method was designed in this paper, and the thermo-hydraulic performance of the oil-side and air-side of the panel-type radiator was investigated with a simplified numerical method and experiments. The uniform air distribution and zoned heat dissipation ideas were used for three blowing methods, which can increase the proportion of air supply for the high-temperature area of the radiator and apply multiple fans for zoned heat dissipation of the insulating oil in the radiator. Then, the effect of different insulating oil flow rates on the heat dissipation performance of the panel-type radiator was investigated. It was shown that the computational time for the simplified numerical simulation method used for an air-cooled panel-type radiator could be effectively shortened with a small relative error. Due to a more uniform air supply and prioritized air distribution for the high-temperature areas using the multi-fan horizontal blowing method, the overall heat dissipation efficiency was improved. Among the three blowing methods, the best heat dissipation performance was obtained by using the six-fan horizontal blowing scheme, which can improve the performance by about 10.42% and 15.44% in experimental and numerical studies, respectively, as compared with the traditional blowing method.

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Publication Details

Journal
Machines
Published
2025-04-02
DOI
https://doi.org/10.3390/machines13040296
Citations
2
Primary Topic
Advanced Aircraft Design and Technologies
Type
article
Field-Weighted Citation Impact
2.21

Funders

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article

Numerical and Experimental Study of Heat Transfer Enhancement for Horizontal Blowing Panel-Type Radiators with Multiple Fans

Peng Yuan, Haimin Hu, Heli Ni, Wenrong Si et al.
2 citations
Machines
Advanced Aircraft Design and Technologies
2.21
article

Numerical and Experimental Study of Heat Transfer Enhancement for Horizontal Blowing Panel-Type Radiators with Multiple Fans

Peng Yuan, Haimin Hu, Heli Ni, Wenrong Si, Jian Yang, Yuhang Tian, Chenzhao Fu, Guanxun Diao
article en
2 citations

Abstract

To improve the thermal performance of air-cooled panel-type radiators for transformers, a multi-fan horizontal blowing method was designed in this paper, and the thermo-hydraulic performance of the oil-side and air-side of the panel-type radiator was investigated with a simplified numerical method and experiments. The uniform air distribution and zoned heat dissipation ideas were used for three blowing methods, which can increase the proportion of air supply for the high-temperature area of the radiator and apply multiple fans for zoned heat dissipation of the insulating oil in the radiator. Then, the effect of different insulating oil flow rates on the heat dissipation performance of the panel-type radiator was investigated. It was shown that the computational time for the simplified numerical simulation method used for an air-cooled panel-type radiator could be effectively shortened with a small relative error. Due to a more uniform air supply and prioritized air distribution for the high-temperature areas using the multi-fan horizontal blowing method, the overall heat dissipation efficiency was improved. Among the three blowing methods, the best heat dissipation performance was obtained by using the six-fan horizontal blowing scheme, which can improve the performance by about 10.42% and 15.44% in experimental and numerical studies, respectively, as compared with the traditional blowing method.

MachinesVol. 13(4)
Shanghai Electric (China) (CN), Xi'an Jiaotong University (CN)
State Grid Shanghai Municipal Electric Power Company
Openalex Percentile: Top 14%
Advanced Aircraft Design and Technologies
2.21
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