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• W2902340126 abstract "This work presents the numerical and experimental studies of the thermal and hydraulic performances of cylindrical mini-channel heat sinks (CMCHSs) based on the constructal theory and the entransy principle. Helical and wavy channels were proposed to enhance the heat transfer of CMCHSs in comparison with a conventional channel configuration (straight channel). A numerical simulation was performed using a three-dimensional finite volume method. On the basis of constructal theory, five degrees of freedom (DOFs) were presented, analyzed and discussed to show the geometrical impacts on the performance of CMCHSs when the laminar flow of water was less than 500. The DOFs of the design were channel configuration (straight, helical and wavy), channel aspect ratio (0.467–4), solid void fraction (80%, 85% and 90%), pitch ratio (1.5, 1.8, 2.1, 2.4 and 2.7) and wave amplitude ratio (0.032, 0.048, 0.062, 0.080 and 0.095). The experimental work examined the impacts of parameters on the thermal performance of fabricated CMCHSs with the optimum channel dimensions obtained from predicted numerical simulation and validated the computational simulation. In addition to the energy analysis of the performance of CMCHSs, a performance analysis was also conducted according to the entransy principle to determine the lowest entransy dissipation rate (EDR) and entransy dissipation thermal resistance. The numerical predicted results corroborated that DOFs have significant impacts on the performance of CMCHSs. The best solid void fraction and channel aspect ratio are 90% and 0.46, respectively. For the proposed CMCHSs with helical and wavy channels, Nusselt number and friction factor ratios increase with the increase of pitch and amplitude ratios. The preferred pitch and amplitude ratios are 2.1 and 0.08 because of their high-performance factor. The comparison between the channel configurations affirmed that the slight difference is in the values of the total EDR amongst the three channels. Moreover, the comparison of the best thermo-hydraulic performance of CMCHSs between helical and wavy channels indicated that the best performance was achieved in the helical channel with the lowest total EDR." @default.
• W2902340126 created "2018-12-11" @default.
• W2902340126 creator A5005215320 @default.
• W2902340126 creator A5072313614 @default.
• W2902340126 date "2019-02-01" @default.
• W2902340126 modified "2023-10-16" @default.
• W2902340126 title "Effects of channel configuration on hydrothermal performance of the cylindrical mini-channel heat sinks" @default.
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• W2902340126 cites W1972327924 @default.
• W2902340126 cites W1975495747 @default.
• W2902340126 cites W1983495265 @default.
• W2902340126 cites W1985120854 @default.
• W2902340126 cites W1987565333 @default.
• W2902340126 cites W1989141884 @default.
• W2902340126 cites W1993469011 @default.
• W2902340126 cites W1997597158 @default.
• W2902340126 cites W1998025295 @default.
• W2902340126 cites W2009446808 @default.
• W2902340126 cites W2015975983 @default.
• W2902340126 cites W2020494075 @default.
• W2902340126 cites W2025568660 @default.
• W2902340126 cites W2063671209 @default.
• W2902340126 cites W2064153499 @default.
• W2902340126 cites W2070705157 @default.
• W2902340126 cites W2070953114 @default.
• W2902340126 cites W2083659699 @default.
• W2902340126 cites W2085183257 @default.
• W2902340126 cites W2089593572 @default.
• W2902340126 cites W2092273255 @default.
• W2902340126 cites W2094155275 @default.
• W2902340126 cites W2139608590 @default.
• W2902340126 cites W2172011321 @default.
• W2902340126 cites W2202574230 @default.
• W2902340126 cites W2221981995 @default.
• W2902340126 cites W2251747932 @default.
• W2902340126 cites W2259987794 @default.
• W2902340126 cites W2265032938 @default.
• W2902340126 cites W2272391817 @default.
• W2902340126 cites W2274164102 @default.
• W2902340126 cites W2278153745 @default.
• W2902340126 cites W2359022436 @default.
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• W2902340126 cites W2427816273 @default.
• W2902340126 cites W2492318043 @default.
• W2902340126 cites W2509130700 @default.
• W2902340126 cites W2511441280 @default.
• W2902340126 cites W2515816339 @default.
• W2902340126 cites W2551149990 @default.
• W2902340126 cites W2610268141 @default.
• W2902340126 cites W2611676682 @default.
• W2902340126 cites W2651118539 @default.
• W2902340126 cites W2724480089 @default.
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• W2902340126 doi "https://doi.org/10.1016/j.applthermaleng.2018.11.101" @default.
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