Diesel Fuel Quality Effects on Exhaust Emissions

1988 ◽  
Author(s):  
K. Weidmann ◽  
H. Menrad ◽  
K. Reders ◽  
R.C. Hutcheson
Keyword(s):  
Diesel Fuel ◽  
Exhaust Emissions ◽  
Fuel Quality

Development of Soft Sensor for Diesel Fuel Quality Estimation

2010 ◽  
Vol 33 (3) ◽  
pp. 405-413 ◽  
Author(s):  
N. Bolf ◽  
G. Galinec ◽  
T. Baksa
Keyword(s):  
Diesel Fuel ◽  
Soft Sensor ◽  
Fuel Quality ◽  
Quality Estimation

Onboard Optimisation of Engine Emissions and Consumption According to Diesel Fuel Quality

2012 ◽  
Vol 5 (4) ◽  
pp. 1661-1683
Author(s):  
Eric Hermitte ◽  
Alain Lunati ◽  
Thaddaeus Delebinski
Keyword(s):  
Diesel Fuel ◽  
Fuel Quality ◽  
Engine Emissions

The Effect of Hydrotreatment of Diesel Fuel Derived from Canadian Tar Sands on Particulate Exhaust Emissions

1982 ◽  
Author(s):  
David L. Hilden ◽  
Stephen P. Bergin ◽  
Harvey A. Burley ◽  
Ronald D. Tharby ◽  
Ian P. Fisher
Keyword(s):  
Diesel Fuel ◽  
Exhaust Emissions ◽  
Tar Sands

scholarly journals THE EFFECT OF DIESEL-BIODIESEL BLENDS ON THE PERFORMANCE AND EXHAUST EMISSIONS OF A DIRECT INJECTION OFF-ROAD DIESEL ENGINE

Transport ◽  
2014 ◽  
Vol 29 (4) ◽  
pp. 440-448 ◽  
Author(s):  
Tomas Mickevičius ◽  
Stasys Slavinskas ◽  
Slawomir Wierzbicki ◽  
Kamil Duda
Keyword(s):  
Diesel Engine ◽  
Diesel Fuel ◽  
Direct Injection ◽  
Engine Performance ◽  
Exhaust Emissions ◽  
Bench Test ◽  
Maximum Pressure ◽  
Cylinder Pressure ◽  
Biodiesel Blends ◽  
Performance And Emission

This paper presents a comparative analysis of the diesel engine performance and emission characteristics, when operating on diesel fuel and various diesel-biodiesel (B10, B20, B40, B60) blends, at various loads and engine speeds. The experimental tests were performed on a four-stroke, four-cylinder, direct injection, naturally aspirated, 60 kW diesel engine D-243. The in-cylinder pressure data was analysed to determine the ignition delay, the Heat Release Rate (HRR), maximum in-cylinder pressure and maximum pressure gradients. The influence of diesel-biodiesel blends on the Brake Specific Fuel Consumption (bsfc) and exhaust emissions was also investigated. The bench test results showed that when the engine running on blends B60 at full engine load and rated speed, the autoignition delay was 13.5% longer, in comparison with mineral diesel. Maximum cylinder pressure decreased about 1–2% when the amount of Rapeseed Methyl Ester (RME) expanded in the diesel fuel when operating at full load and 1400 min–1 speed. At rated mode, the minimum bsfc increased, when operating on biofuel blends compared to mineral diesel. The maximum brake thermal efficiency sustained at the levels from 0.3% to 6.5% lower in comparison with mineral diesel operating at full (100%) load. When the engine was running at maximum torque mode using diesel – RME fuel blends B10, B20, B40 and B60 the total emissions of nitrogen oxides decreased. At full and moderate load, the emission of carbon monoxide significantly raised as the amount of RME in fuel increased.

Exhaust Emissions From a 2,850 kW EMD SD60M Locomotive Equipped With a Diesel Oxidation Catalyst

2007 ◽  
Author(s):  
Dustin T. Osborne ◽  
Steven G. Fritz ◽  
Mike Iden ◽  
Don Newburry
Keyword(s):  
Diesel Fuel ◽  
Exhaust Emissions ◽  
Diesel Oxidation Catalyst ◽  
Oxidation Catalyst ◽  
Exhaust Emission ◽  
Exhaust Manifold ◽  
Test Procedures ◽  
Diesel Oxidation ◽  
Certification Test ◽  
Railroad Company

This paper describes the test results of a program to apply an experimental diesel oxidation catalyst (DOC) to a 2,850 kW freight locomotive. Locomotive emissions and fuel consumption measurements were performed on an Electro-Motive Diesel (EMD) model SD60M locomotive, owned by Union Pacific Railroad company, that had been recently rebuilt to EPA Tier 0 exhaust emission certification levels. Emission testing was performed at the Southwest Research Institute (SwRI) Locomotive Exhaust Emissions Test Center in San Antonio, Texas. US EPA-regulated emission levels of hydrocarbons (HC), carbon monoxide (CO), oxides of nitrogen (NOx), and participate (PM) were measured using U.S. EPA locomotive certification test procedures in three configurations; first a baseline with a relatively high sulfur diesel fuel (2,913 ppm sulfur) meeting EPA locomotive certification test specifications, and another baseline using ultra-low sulfur diesel fuel (ULDS), and finally a test using ULSD after the installation of a diesel oxidation catalyst designed and manufactured by MIRATECH Corporation (patent pending). The DOC was applied pre-turbine, within the exhaust manifold due to both space and exhaust temperature considerations. This paper describes the design of the DOC-equipped exhaust manifold, and reports the changes in the regulated exhaust emission levels between the baseline tests and after installation of the DOC. Also described is a locomotive on-board monitoring system used to monitor DOC performance during ongoing revenue service field testing.

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