CFD Analysis of Intake Valve for Port Petrol Injection SI Engine

α
Dr K.M Pandey
Dr K.M Pandey
σ
Dr. Bidesh Roy
Dr. Bidesh Roy
ρ
K.M Pandey
K.M Pandey
α National Institute Of Technology Silchar

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CFD Analysis of Intake Valve for Port Petrol Injection SI Engine

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Abstract

The air standard efficiency for SI engine is approximately 60% under full load condition but the actual brake thermal efficiency under full load condition is approximately 32.6% which is due to the various losses that occur. One of the primary lose is burning time loss which is approximately 4% and occur due to finite time combustion of the charge. This lose can be reduced to some extend by generation of a higher degree of swirl which will increase turbulence intensity with in the engine cylinder. The production of turbulence of higher intensity is one of the most important factors for stabilizing the ignition process, fast propagation of flame, especially in case of lean-burn combustion In general, two type of vortices are utilized in order to generated and preserve the turbulence flows efficiently. These vortices are usually known as swirl and tumble flows, which are organized rotations in the horizontal and vertical plane of the engine cylinder, respectively.

References

19 Cites in Article
  1. W Kurniawan,; Abdullah,A Shamsudeen (2007). Turbulence and Heat Transfer Analysis of Intake and Compression Stroke in Automotive 4-stroke Direct Injection Engine.
  2. J Heywood (1988). Internal combustion engine fundamental.
  3. B Reveille,A Duparchy (2009). 3D CFD analysis of an abnormally rapid Combustion phenomenon in downsized gasoline engines.
  4. X Franz,Seshasai Tanner,Srinivasan (2009). CFD-based optimization of fuel injection strategies in a diesel engine using an adaptive gradient method.
  5. Vijaya Kumar Cheeda,R Kumar,G Nagarajan (2008). Design and CFD analysis of a regenerator for a turboshaft helicopter engine.
  6. L Li,X Peng,T Liu (2006). Combustion and cooling performance in an aero-engine annular combustor.
  7. Christian Hasse,Volker Sohm,Bodo Durst (2009). Numerical investigation of cyclic variations in gasoline engines using a hybrid URANS/LES modeling approach.
  8. Wendy Hardyono Kumiawan,Shahrir Abdullah,Azhari Shamsudeen ; Andras Kadocsa,Reinhard Tatschl,Gergely Kristof (2007). Analysis of spray evolution in internal combustion engines using numerical simulation.
  9. Toyoshige Shibata,Hideo Matsui,Masao Tsubouchi,Minoru Katsurada (2004). Evaluation of CFD Tools Applied to Engine Coolant Flow Analysis.
  10. N Semin,Rosli Ibrahim,Abdul Bakar,Ismail (2008). In-Cylinder Flow through Piston-Port Engines Modeling using Dynamic Mesh.
  11. Helmut Doleisch SIMVIS: Interactive visual analysis of large and time-dependent 3D simulation data.
  12. S Basha,K Rajagopal (2009). Simulation of In-Cylinder Processes in a DI Diesel Engine with Variation in Initial Swirl Ratio.
  13. R Rezaei,S Pischinger,P Adomeit,J Ewald (2009). Evaluation of CI In-Cylinder Flow using optical and numerical techniques.
  14. R Devarajan,M Rejab,N Zuki,N,T Yusaf (2009). Development of a High Pressure Compressed Natural Gas Mixer for A 1.5 Litre CNG-Diesel Dual Engine.
  15. Yasar Deger,Burkhard Simperl,Luis Jimenez (2004). Coupled CFD-FE-Analysis for the Exhaust Manifold of a Diesel Engine.
  16. Kihyung Lee,Choongsik Bae,Kernyong Kang (2007). The effects of tumble and swirl flows on flame propagation in a four-valve S.I. engine.
  17. B Murali Krishna,J Mallikarjuna (2009). Tumble flow analysis in an unfired engine using particle image velocimetry.
  18. B Khalighi (1991). Study of the intake tumble motion by flow visualization and particle tracking velocimetry.
  19. K Pandey,S Pandey,Bidesh Roy (2010). Numerical analysis to determine the effect of temperature on the intake generated swirl for port fuel injection SI engine.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Dr K.M Pandey. 2012. \u201cCFD Analysis of Intake Valve for Port Petrol Injection SI Engine\u201d. Global Journal of Research in Engineering - A : Mechanical & Mechanics GJRE-A Volume 12 (GJRE Volume 12 Issue A5): .

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Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

Version of record

v1.2

Issue date

July 20, 2012

Language
en
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The air standard efficiency for SI engine is approximately 60% under full load condition but the actual brake thermal efficiency under full load condition is approximately 32.6% which is due to the various losses that occur. One of the primary lose is burning time loss which is approximately 4% and occur due to finite time combustion of the charge. This lose can be reduced to some extend by generation of a higher degree of swirl which will increase turbulence intensity with in the engine cylinder. The production of turbulence of higher intensity is one of the most important factors for stabilizing the ignition process, fast propagation of flame, especially in case of lean-burn combustion In general, two type of vortices are utilized in order to generated and preserve the turbulence flows efficiently. These vortices are usually known as swirl and tumble flows, which are organized rotations in the horizontal and vertical plane of the engine cylinder, respectively.

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CFD Analysis of Intake Valve for Port Petrol Injection SI Engine

Dr. Bidesh Roy
Dr. Bidesh Roy
K.M Pandey
K.M Pandey

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