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고속 고부하 상태의 DISI 엔진에서 메탄올-가솔린 혼합연료의 연료 혼합비와 2단 분사가 엔진 내부유동 및 연소특성에 미치는 영향The Effect of Mixing Rate and Multi Stage Injection on the Internal Flow Field and Combustion Characteristics of DISI Engine Using Methanol-gasoline Blended Fuel at High Speed / High Load Condition

Other Titles
The Effect of Mixing Rate and Multi Stage Injection on the Internal Flow Field and Combustion Characteristics of DISI Engine Using Methanol-gasoline Blended Fuel at High Speed / High Load Condition
Authors
배진우서주형이재성김호영
Issue Date
2013
Publisher
한국자동차공학회
Keywords
CFD(전산 유체 역학); DISI engine(Direct Injection Spark Ignition engine; 스파크점화식 직분사 엔진); Blended fuel(혼합연료); Injection duration(분사기간); Uniformity(균일도); Equivalence ratio(당량비)
Citation
한국자동차공학회 논문집, v.21, no.5, pp.15 - 24
Indexed
KCI
Journal Title
한국자동차공학회 논문집
Volume
21
Number
5
Start Page
15
End Page
24
URI
https://scholar.korea.ac.kr/handle/2021.sw.korea/105225
DOI
10.7467/KSAE.2013.21.5.015
ISSN
1225-6382
Abstract
Numerical studies were conducted to investigate the internal flow field and combustion characteristics of DISI engine with methanol blended in gasoline. Dual injection was applied and the characteristics were compared to single injection strategy. The amount of the fuel injection was corresponded to air-fuel ratio of each fuel for complete combustion. The preforming model in this study, software STAR-CD was employed for both modeling and solving. The operating speed condition were at 4000 rpm/WOT (Wide open throttle) where the engine was fully warmed. The results of single injection with M28 showed that the uniformity, equivalence ratio, in-cylinder pressure and temperature increased comparing to gasoline (M0). When dual injection was applied, there was no significant change in uniformity and equivalence ratio but the in-cylinder pressure and temperature increased. When M28 fuel and single injection was applied, the CO (Carbon monoxide) and NO (Nitrogen oxides) emission inside the combustion chamber increased approximately 36%, 9% comparing with benchmarking case in cylinder prior to TWC (Three Way Catalytic converter). When dual stage injection was applied, both CO and NO emission amount increased.
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