A review of flow acoustic effects on a commercial automotive exhaust system - methods and materials

Keywords: Internal combustion engine, Exhaust gas system, Two-source method, Two-load method, Acoustic analysis, Computational Fluid Dynamic

Abstract

Literature review on flow acoustic methods and materials of an automotive muffler. a car is judged comfortable also depending on the acoustic level transmitted inside, and a thorough knowledge of acoustics of ducts and mufflers is needed for the design of efficient muffler configurations. Unstable exhaust gas at high temperature flowing from internal combustion engine manifold may cause of noise and vibrations conflicting with the high standard of acoustic comfort requested by this kind of vehicle. The basic gaols are to define most important methods to identify noise occur from the motion of fluid in case of turbulent model. Materials properties like velocity, temperature, thermal conductivity and density have been technical presented in this work.

Downloads

Download data is not yet available.

Author Biography

Barhm Mohamad, Faculty of Mechanical Engineering and Informatics, University of Miskolc, Miskolc, Hungary

author_Mohamad.png

Barhm Mohamad received his M.E. degree in Mechanical Engineering in 2012 and start his  Ph.D studies in 2016 in Faculty of Mechanical Engineering and Informatics University of Miskolc-Hungary. respectively. Since 2018 he has been a technical researcher in the Formula Student-Miskolc at the University of Miskolc, His scientific interests focus on problems concerning intake and exhaust systems in modern automotives and diagnostics. He has participated in 2 international and 3 national research projects, presenting results of his work at 5 international and 2 national conferences, published more than 9 scientific papers in international and national journals, book chapters, as well as conference proceedings.

Published
2019-07-15
How to Cite
Mohamad, B. (2019) “A review of flow acoustic effects on a commercial automotive exhaust system - methods and materials”, Journal of Mechanical and Energy Engineering, 3(2), pp. 149-156. doi: 10.30464/jmee.2019.3.2.149.
Section
Energy Engineering