Performance Investigation of 405 Stainless Steel Thermosyphon using Cerium (IV) Oxide Nano Fluid

N. Alagappan, N. Karunakaran
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引用次数: 5

Abstract

A thermosyphon is an efficient heat transfer device, which transports heat using gravity for the evaporation and condensation of the working fluid. In the present study the Box-Benhnken (BBD) design approach was chosen for the Two-Phase Closed Thermosyphon (TPCT) with CeO2 nanofluid using 0.1% volume of Nanofluid with surfactant of ethylene glycol. The experiment resulted in identifying the optimised set of parameters for 405SS TPCT, to achieve lower thermal resistance and better heat transfer. This work gains significance in the sense that with the number of experiments, reliable model has been generated validated and further, the process has been optimised with one objective which is thermal resistance. To obtain the optimum condition, the response surface methodology (RSM) through Box – Behnken (BBD) was applied.
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纳米氧化铈纳米流体对405不锈钢热虹吸管性能的研究
热虹吸是一种高效的传热装置,它利用重力为工作流体的蒸发和冷凝输送热量。在本研究中,采用Box-Benhnken (BBD)设计方法,采用0.1%体积的纳米流体和表面活性剂乙二醇,制备了含CeO2纳米流体的两相封闭热虹吸(TPCT)。实验结果确定了405SS TPCT的优化参数集,以实现更低的热阻和更好的传热。这项工作的意义在于,随着实验次数的增加,已经产生了可靠的模型,并且进一步优化了该过程,目标是热阻。采用Box - Behnken (BBD)响应面法(RSM)确定最佳条件。
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