SIMULATION STUDY OF FINNED DOUBLE PIPE HEAT EXCHANGER

Anbu Clemensis Johnson, Aws Sadoon Mohammed
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Abstract

Double pipe heat exchangers are extensively used in process industries. Increasing the surface area of heat exchanger results in enhanced heat transfer. In the current study double pipe heat exchanger was simulated using ANSYS Fluent simulator program. The fins were added to the outer surface of the inner pipe and the geometries studied were, rectangular, triangular and leaf shaped. Water outlet temperature of the heat exchanger was studied with mass flow rates of 0.20 kg/s, 0.24 kg/s and 0.28 kg/s. It was determined that with increase in mass flow rate the outlet temperature of cold water decreased. Higher outlet temperature of cold water was obtained with leaf fins as compared to rectangular, triangular and without-fin cases at mass flow rates of 0.20 kg/s and 0.24 kg/s. The percentage differences in temperature gradient seem to vary with change in mass flow rate. It is shown from the study that the length of heat exchanger with fins could be reduced to half to achieve about 90% of the temperature gradient.
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翅片式双管换热器的仿真研究
双管换热器广泛应用于过程工业。增加换热器的表面积可以增强传热。本研究采用ANSYS Fluent仿真程序对双管换热器进行仿真。内管的外表面增加了翅片,研究的几何形状有矩形、三角形和叶形。研究了质量流量为0.20、0.24、0.28 kg/s时换热器出水温度。结果表明,随着质量流量的增加,冷水出口温度降低。在质量流量分别为0.20 kg/s和0.24 kg/s时,与矩形、三角形和无翅片情况相比,有翅片的冷水出口温度更高。温度梯度的百分比差异似乎随质量流量的变化而变化。研究表明,翅片换热器的长度可以减少一半,以达到约90%的温度梯度。
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