2002DergiPark (Istanbul University)Requires access

Experimental Analysis of the Effect of Exhaust Gas Recirculation (EGR) on Engine Performance and Exhaust Emissions on Diesel Engines

Can Haşımoğlu, Yakup İçıngür, Hüseyin Öğüt

Open publisher page 7 citations

Abstract

When the temperature of the combustion chamber rises beyond 1800 K in internal combustion engines, the nitrogen and oxygen in the air combine chemically and become a gas called nitrogen oxide, which is harmful to human health and the environment. Nitrogen oxides combine with humidity in the lungs and become nitric acid, which causes breathing illnesses. Diesel engines use excess air for combustion, and this increases nitrogen oxide production potential. In this research, the reduction of nitrogen oxide emissions from diesel engines was investigated. For this purpose, a single cylinder diesel engine's exhaust gases were recirculated to the engine induction system at determined rates (10, 20, 30%) and changes in engine performance and exhaust emissions were traced. The results show that nitrogen oxide emissions decreased drastically but smoke emissions and specific fuel consumption deteriorated.

About this research paper

What this paper is about

When the temperature of the combustion chamber rises beyond 1800 K in internal combustion engines, the nitrogen and oxygen in the air combine chemically and become a gas called nitrogen oxide, which is harmful to human health and the environment. Nitrogen oxides combine with humidity in the lungs and become nitric acid, which causes breathing illnesses. Diesel engines use excess air for combustion, and this increases nitrogen oxide production potential. In this research, the reduction of nitrogen oxide emissions from diesel engines was investigated. For this purpose, a single cylinder diesel engine's exhaust gases were recirculated to the engine induction system at determined rates (10, 20, 30%) and changes in engine performance and exhaust emissions were traced. The results show that nitrogen oxide emissions decreased drastically but smoke emissions and specific fuel consumption deteriorated.

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OpenAlex reports 7 citations for this work. Citation counts describe recorded attention and do not establish research quality.

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Available abstract

When the temperature of the combustion chamber rises beyond 1800 K in internal combustion engines, the nitrogen and oxygen in the air combine chemically and become a gas called nitrogen oxide, which is harmful to human health and the environment. Nitrogen oxides combine with humidity in the lungs and become nitric acid, which causes breathing illnesses. Diesel engines use excess air for combustion, and this increases nitrogen oxide production potential. In this research, the reduction of nitrogen oxide emissions from diesel engines was investigated. For this purpose, a single cylinder diesel engine's exhaust gases were recirculated to the engine induction system at determined rates (10, 20, 30%) and changes in engine performance and exhaust emissions were traced. The results show that nitrogen oxide emissions decreased drastically but smoke emissions and specific fuel consumption deteriorated.

Key concepts: Exhaust gas recirculation, Diesel exhaust, Diesel engine, Environmental science, Exhaust gas, Automotive engineering, Secondary air injection, Diesel exhaust fluid

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Experimental Analysis of the Effect of Exhaust Gas Recirculation (EGR) on Engine Performance and Exhaust Emissions on Diesel Engines — Research Paper | ScholarLens