纳米技术在热负荷下改善流体输送管道急速度方面的效果

IF 5.3 Q1 ENGINEERING, MECHANICAL International Journal of Hydromechatronics Pub Date : 2021-08-06 DOI:10.1504/ijhm.2021.10039230
Mohammad Hosein Fakhar, A. Fakhar, H. Tabatabaei
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引用次数: 15

摘要

本文研究了纳米技术对流体输送纳米复合材料管道流体急速的影响。聚合物管采用Mori和Tanaka模型,由碳纳米管武装。采用微扰法计算了流体引起的动力。根据能量法、拉格朗日模型和明德林理论,得到了最终方程。利用半精确解求解了这些关系式,计算了流体的急速,从而研究了管道几何常数和碳纳米管百分比对流体急速的影响。并将所得结果与其他论文的结果进行了比较,证明了该解的准确性。随着碳纳米管掺量的增加,流体的急流速有所提高。实际上,热的产生对流体的急性速度有有害的影响,因为它可以减少流体的急性值,因为管道的刚度降低。
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Nanotechnology efficacy on improvement of acute velocity in fluid-conveyed pipes under thermal load
Herein, nanotechnology efficacy on the acute velocity of fluid of fluid-conveyed-nanocomposite pipes is studied. The polymeric pipe is armed by carbon nanotubes utilising Mori and Tanaka model. The dynamic force induced by fluid is calculated utilising perturbation method. Based on method of energy and Lagrange model as well as Mindlin theory, the final equations are obtained. Utilising semi-exact solution, the relations are solved in order to calculate the acute velocity of fluid so that the efficacy of pipes geometrical constants and CNT percentage are investigated on the acute velocity of fluid. The outcomes are compared with other papers for showing the accuracy of this solution. With adding the CNT percentage, the acute velocity of fluid is improved. Indeed, the heat generation has a harmful efficacy on the acute velocity of fluid since it can reduce the acute value due to reduction in the stiffness of pipe.
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CiteScore
7.60
自引率
0.00%
发文量
32
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