NOx, Soot, and Fuel Consumption Predictions under Transient Operating Cycle for Common Rail High Power Density Diesel Engines
Diesel engine is presently facing the challenge of controlling NOx and soot emissions on transient cycles, to meet stricter emission norms and to control emissions during field operations. Development of a simulation tool for NOx and soot emissions prediction on transient operating cycles has become...
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Language: | English |
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Wiley
2016-01-01
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Series: | Journal of Combustion |
Online Access: | http://dx.doi.org/10.1155/2016/1374768 |
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author | N. H. Walke M. R. Nandgaonkar N. V. Marathe |
author_facet | N. H. Walke M. R. Nandgaonkar N. V. Marathe |
author_sort | N. H. Walke |
collection | DOAJ |
description | Diesel engine is presently facing the challenge of controlling NOx and soot emissions on transient cycles, to meet stricter emission norms and to control emissions during field operations. Development of a simulation tool for NOx and soot emissions prediction on transient operating cycles has become the most important objective, which can significantly reduce the experimentation time and cost required for tuning these emissions. Hence, in this work, a 0D comprehensive predictive model has been formulated with selection and coupling of appropriate combustion and emissions models to engine cycle models. Selected combustion and emissions models are further modified to improve their prediction accuracy in the full operating zone. Responses of the combustion and emissions models have been validated for load and “start of injection” changes. Model predicted transient fuel consumption, air handling system parameters, and NOx and soot emissions are in good agreement with measured data on a turbocharged high power density common rail engine for the “nonroad transient cycle” (NRTC). It can be concluded that 0D models can be used for prediction of transient emissions on modern engines. How the formulated approach can also be extended to transient emissions prediction for other applications and fuels is also discussed. |
format | Article |
id | doaj-art-4d22e074830145688a435a039f016e19 |
institution | Kabale University |
issn | 2090-1968 2090-1976 |
language | English |
publishDate | 2016-01-01 |
publisher | Wiley |
record_format | Article |
series | Journal of Combustion |
spelling | doaj-art-4d22e074830145688a435a039f016e192025-02-03T05:45:48ZengWileyJournal of Combustion2090-19682090-19762016-01-01201610.1155/2016/13747681374768NOx, Soot, and Fuel Consumption Predictions under Transient Operating Cycle for Common Rail High Power Density Diesel EnginesN. H. Walke0M. R. Nandgaonkar1N. V. Marathe2The Automotive Research Association of India, Pune, Maharashtra 411038, IndiaDepartment of Mechanical Engineering, College of Engineering Pune, Pune, Maharashtra 411005, IndiaThe Automotive Research Association of India, Pune, Maharashtra 411038, IndiaDiesel engine is presently facing the challenge of controlling NOx and soot emissions on transient cycles, to meet stricter emission norms and to control emissions during field operations. Development of a simulation tool for NOx and soot emissions prediction on transient operating cycles has become the most important objective, which can significantly reduce the experimentation time and cost required for tuning these emissions. Hence, in this work, a 0D comprehensive predictive model has been formulated with selection and coupling of appropriate combustion and emissions models to engine cycle models. Selected combustion and emissions models are further modified to improve their prediction accuracy in the full operating zone. Responses of the combustion and emissions models have been validated for load and “start of injection” changes. Model predicted transient fuel consumption, air handling system parameters, and NOx and soot emissions are in good agreement with measured data on a turbocharged high power density common rail engine for the “nonroad transient cycle” (NRTC). It can be concluded that 0D models can be used for prediction of transient emissions on modern engines. How the formulated approach can also be extended to transient emissions prediction for other applications and fuels is also discussed.http://dx.doi.org/10.1155/2016/1374768 |
spellingShingle | N. H. Walke M. R. Nandgaonkar N. V. Marathe NOx, Soot, and Fuel Consumption Predictions under Transient Operating Cycle for Common Rail High Power Density Diesel Engines Journal of Combustion |
title | NOx, Soot, and Fuel Consumption Predictions under Transient Operating Cycle for Common Rail High Power Density Diesel Engines |
title_full | NOx, Soot, and Fuel Consumption Predictions under Transient Operating Cycle for Common Rail High Power Density Diesel Engines |
title_fullStr | NOx, Soot, and Fuel Consumption Predictions under Transient Operating Cycle for Common Rail High Power Density Diesel Engines |
title_full_unstemmed | NOx, Soot, and Fuel Consumption Predictions under Transient Operating Cycle for Common Rail High Power Density Diesel Engines |
title_short | NOx, Soot, and Fuel Consumption Predictions under Transient Operating Cycle for Common Rail High Power Density Diesel Engines |
title_sort | nox soot and fuel consumption predictions under transient operating cycle for common rail high power density diesel engines |
url | http://dx.doi.org/10.1155/2016/1374768 |
work_keys_str_mv | AT nhwalke noxsootandfuelconsumptionpredictionsundertransientoperatingcycleforcommonrailhighpowerdensitydieselengines AT mrnandgaonkar noxsootandfuelconsumptionpredictionsundertransientoperatingcycleforcommonrailhighpowerdensitydieselengines AT nvmarathe noxsootandfuelconsumptionpredictionsundertransientoperatingcycleforcommonrailhighpowerdensitydieselengines |