Flow analysis of intake port in internal combustion engine

The purpose of this study is to analyse the development of swirl and tumble motion inside internal combustion engine by using computational fluid dynamic (CFD) modelling. Computational fluid dynamic software, FLUENT was used to simulate the swirl and tumble motion inside combustion chamber during in...

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Main Authors: Muhamad Said, Mohd. Farid, Mohd. Shahrin, Mohd. Zahin, Mohamad Shafie, Nur Adila
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Published: 2015
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Online Access:http://eprints.utm.my/id/eprint/60244/
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spelling my.utm.602442021-10-28T07:29:34Z http://eprints.utm.my/id/eprint/60244/ Flow analysis of intake port in internal combustion engine Muhamad Said, Mohd. Farid Mohd. Shahrin, Mohd. Zahin Mohamad Shafie, Nur Adila TJ Mechanical engineering and machinery The purpose of this study is to analyse the development of swirl and tumble motion inside internal combustion engine by using computational fluid dynamic (CFD) modelling. Computational fluid dynamic software, FLUENT was used to simulate the swirl and tumble motion inside combustion chamber during intake stroke. Three different intake port design geometries were used to investigate the flow inside the engine cylinders. The original combustion chamber of 1.6L SI engine was used as benchmark and compared with the calculated swirl and tumble ratio in the other two modified intake port design. Analysis works of the intake stroke were performed. Here, the flow analysis using static model illustrates similarity compared to dynamic model. The effect of intake port geometries and intake valve position was analysed. Results were compared between different intake port geometries and intake valve position in term of swirl and tumble ratio. It is discovered that with similar parameters of the engines, intake port geometries with the biggest diameter give the lowest value of swirl and tumble ratio, while by increasing the position of intake valve, value of swirl and tumble ratio increases. The simulation results confirmed that different intake port designs affect the development of swirl and tumble inside internal combustion engine based on calculated swirl and tumble ratio. 2015 Article PeerReviewed Muhamad Said, Mohd. Farid and Mohd. Shahrin, Mohd. Zahin and Mohamad Shafie, Nur Adila (2015) Flow analysis of intake port in internal combustion engine. Jurnal Teknos-2K, 15 (2). pp. 42-54. ISSN 1411-4151
institution Universiti Teknologi Malaysia
building UTM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Malaysia
content_source UTM Institutional Repository
url_provider http://eprints.utm.my/
topic TJ Mechanical engineering and machinery
spellingShingle TJ Mechanical engineering and machinery
Muhamad Said, Mohd. Farid
Mohd. Shahrin, Mohd. Zahin
Mohamad Shafie, Nur Adila
Flow analysis of intake port in internal combustion engine
description The purpose of this study is to analyse the development of swirl and tumble motion inside internal combustion engine by using computational fluid dynamic (CFD) modelling. Computational fluid dynamic software, FLUENT was used to simulate the swirl and tumble motion inside combustion chamber during intake stroke. Three different intake port design geometries were used to investigate the flow inside the engine cylinders. The original combustion chamber of 1.6L SI engine was used as benchmark and compared with the calculated swirl and tumble ratio in the other two modified intake port design. Analysis works of the intake stroke were performed. Here, the flow analysis using static model illustrates similarity compared to dynamic model. The effect of intake port geometries and intake valve position was analysed. Results were compared between different intake port geometries and intake valve position in term of swirl and tumble ratio. It is discovered that with similar parameters of the engines, intake port geometries with the biggest diameter give the lowest value of swirl and tumble ratio, while by increasing the position of intake valve, value of swirl and tumble ratio increases. The simulation results confirmed that different intake port designs affect the development of swirl and tumble inside internal combustion engine based on calculated swirl and tumble ratio.
format Article
author Muhamad Said, Mohd. Farid
Mohd. Shahrin, Mohd. Zahin
Mohamad Shafie, Nur Adila
author_facet Muhamad Said, Mohd. Farid
Mohd. Shahrin, Mohd. Zahin
Mohamad Shafie, Nur Adila
author_sort Muhamad Said, Mohd. Farid
title Flow analysis of intake port in internal combustion engine
title_short Flow analysis of intake port in internal combustion engine
title_full Flow analysis of intake port in internal combustion engine
title_fullStr Flow analysis of intake port in internal combustion engine
title_full_unstemmed Flow analysis of intake port in internal combustion engine
title_sort flow analysis of intake port in internal combustion engine
publishDate 2015
url http://eprints.utm.my/id/eprint/60244/
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score 13.211869