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• W4386409723 endingPage "121490" @default.
• W4386409723 startingPage "121490" @default.
• W4386409723 abstract "Thermal management plays a vital role in the widespread adoption of electric vehicles, and heat pipes are increasingly being recognized as passive cooling solutions for battery thermal management. To address the issue of poor temperature uniformity at the battery contact surface in the side cooling application of battery thermal management systems (BTMS), the use of a flat confined loop heat pipe (FCLHP) as a solution for side cooling in battery thermal management has been proposed. A numerical simulation model was developed, employing the volume of fluid (VOF) method combined with the Lee phase-change model, to investigate the effects of heating power and filling ratio on the heat transfer characteristics of FCLHP and observe the flow behavior inside the pipes. The results showed that, under steady-state conditions, the FCLHP exhibited an annular flow pattern in the condenser and a large bubble boiling regime in the evaporator, effectively mitigating the “dry-out” phenomenon observed in traditional microchannel heat pipes. With an increase in heating power from 30W to 50W and 70W, the overall thermal resistance decreased by 44.39% and 61.08% respectively, with a diminishing reduction in total thermal resistance as the heating power increased. Furthermore, increasing the filling ratio from 50% to 70% and 90% resulted in a reduction of overall thermal resistance by 47% and 40.93% respectively. It was observed that the thermal resistance of FCLHP decreased with increasing heating power, while with increasing filling ratio, the thermal resistance initially decreased and then increased, reaching an optimal filling ratio of 70%. A comparative model with a traditional microchannel heat pipe was established to assess battery contact surface temperature and temperature uniformity. FCLHP exhibited lower battery contact surface temperature compared to traditional microchannel heat pipes, with a 33% improvement in temperature uniformity. This work highlights the potential of unidirectional confined loop heat pipes in side cooling applications for batteries and provides a new design concept and theoretical foundation for the application of loop heat pipes in battery cooling." @default.
• W4386409723 created "2023-09-05" @default.
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• W4386409723 date "2024-01-01" @default.
• W4386409723 modified "2023-10-01" @default.
• W4386409723 title "Numerical study on side cooling technology of battery with a flat confined loop heat pipe" @default.
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• W4386409723 doi "https://doi.org/10.1016/j.applthermaleng.2023.121490" @default.
• W4386409723 hasPublicationYear "2024" @default.
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