Optimal Design Study on the Radian and Length of the Guide Plates for the Pipeline Elbow

Abstract:

Pipeline elbows are extensively applied in the liquid-conveying piping system, which vibration and noise control are always difficult and critical. The structural style of the guide plates for the liquid-conveying pipe noise eliminating elbow is numerical calculated in this paper, then we find that the fluid liquidity in the liquid-conveying pipe elbow is improved very well by the cross-sectional bending radian and export length of the guide plates, and the two parameters are also optimal designed. The calculated results show that the total pressure difference in the liquid-conveying pipeline elbow decreases first and then increases with the cross-sectional bending radius of the guide plate increases; The total pressure difference decreases first and then increases with the export length of the guide plate increases; When the guide plates according to the gold ratio arrangement, the number, the cross-sectional bending radius and the length are 2, 200 mm and 40 mm respectively, we obtain the total pressure difference is 10707.87 Pa in the liquid-conveying pipeline elbow, comparing it to the result of the original program, it decreases 38.58%, so the internal flow field is improved better, the optimal design has a very obvious effect.

• Periodical: Advanced Materials Research (Volume 426)
• Pages: 112-117
• DOI: https://doi.org/10.4028/www.scientific.net/AMR.426.112
• Online since: January 2012
• Authors: Lan Ying Wu, Yan Lin Wang, Yong Wei
• Keywords: Fluid Liquidity, Guide Plate, Noise, Pipeline Elbow, Vibration

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