Mesh Technique for the Finite Element Simulation of Acoustic Fluid-Solid Coupled Analysis

Marian Bogdan Neagoe; Sorin Cănănău; Lucian Mândrea

doi:10.4028/www.scientific.net/AMM.555.452

Paper Titles

Dynamic Simulation in Mechatronic Concept of a Photovoltaic String Equipped with Solar Tracker
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The Experimental Method for Obtaining Input Data for the Design of an Automatic Magnetic Connection Mechanism
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Effective Parameters of Solar Water Heating System on Ceramic Drying
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The Analysis of the Influence of EMR Effects Provided From the Mobile Phones with Different SAR Index
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Mesh Technique for the Finite Element Simulation of Acoustic Fluid-Solid Coupled Analysis
p.452

Use of Equimomental Systems in Calculating Inertial and Dynamic Quantities of Plane Plates
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Neural Temperature Control in a Water Cylinder
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Virtual Analysis of Manufacturability of Vane Pumps
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Conceptual Approach of the Environmental Impact Issued by the Manufacturing Process
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HomeApplied Mechanics and MaterialsApplied Mechanics and Materials Vol. 555Mesh Technique for the Finite Element Simulation...

Mesh Technique for the Finite Element Simulation of Acoustic Fluid-Solid Coupled Analysis

Abstract:

Noise and vibration analysis has become thoroughly researched in vehicle engineering where is needed to keep the noise level low and affect the vehicle users. The analysis in the paper shows a frequency response study where we will determine the frequency response on a coupled structure-fluid model. The study will be made on a simplified “train wagon“ model to show in a better way the differences between a perfect coupled structure-fluid model and a non-conformal coupling. The analysis shows that the distribution of the nodes for the two cases influences the results.

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Periodical:

Applied Mechanics and Materials (Volume 555)

Pages:

452-457

DOI:

https://doi.org/10.4028/www.scientific.net/AMM.555.452

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Online since:

June 2014

Authors:

Marian Bogdan Neagoe, Sorin Cănănău*, Lucian Mândrea

Keywords:

Finite Element, Fluid-Solid Interaction, Frequency Response Analysis, Meshing Interface, NVH

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* - Corresponding Author

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