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Numerama study on heat-transfer characteristics of loop heat pipe evaporator using three-dimensional pore network model

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Academic year: 2021

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Figure

Fig. 1. Behavior of phase distribution in LHP wick. C is evaporation interface. Capillary pressure is developed at C .
Fig. 6. Evaporator heat-transfer coefficient as function of heat flux.020406080100-50050100150ΔTnuc(°C)Saturation temperature (°C)R134aEthanolAcetoneWaterAmmoniaPropylene
Fig. 8. Schematic of computational domain of three-dimensional groove shape.
Fig. 6 presents the evaporator heat-transfer coefficient for each evaporator configuration
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