SAE International An Enabling Study of Diesel Low Temperature Combustion via Adaptive Control 2009-01-0730

Description
Low temperature combustion (LTC), though effective to reduce soot and oxides of nitrogen (NOx) simultaneously from diesel engines, operates in narrowly close to unstable regions. Adaptive control strategies are developed to expand the stable operations and to improve the fuel efficiency that was commonly compromised by LTC. Engine cycle simulations were performed to better design the combustion control models. The research platform consists of an advanced common-rail diesel engine modified for the intensified single cylinder research and a set of embedded real-time (RT) controllers, field programmable gate array (FPGA) devices, and a synchronized personal computer (PC) control and measurement system. Up to 12 fuel injection pulses per cylinder per cycle have been applied to modulate the homogeneity history of the cylinder charge in hybrid combustion modes in order to improve the phasing and completeness of combustion under independently controlled exhaust gas recirculation, intake boost, and exhaust backpressure.
Description
Low temperature combustion (LTC), though effective to reduce soot and oxides of nitrogen (NOx) simultaneously from diesel engines, operates in narrowly close to unstable regions. Adaptive control strategies are developed to expand the stable operations and to improve the fuel efficiency that was commonly compromised by LTC. Engine cycle simulations were performed to better design the combustion control models. The research platform consists of an advanced common-rail diesel engine modified for the intensified single cylinder research and a set of embedded real-time (RT) controllers, field programmable gate array (FPGA) devices, and a synchronized personal computer (PC) control and measurement system. Up to 12 fuel injection pulses per cylinder per cycle have been applied to modulate the homogeneity history of the cylinder charge in hybrid combustion modes in order to improve the phasing and completeness of combustion under independently controlled exhaust gas recirculation, intake boost, and exhaust backpressure.

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An Enabling Study of Diesel Low Temperature Combustion via Adaptive Control - 2009-01-0730 - SAE International
Warrendale, PA, United States
An Enabling Study of Diesel Low Temperature Combustion via Adaptive Control
2009-01-0730
An Enabling Study of Diesel Low Temperature Combustion via Adaptive Control 2009-01-0730
Low temperature combustion (LTC), though effective to reduce soot and oxides of nitrogen (NOx) simultaneously from diesel engines, operates in narrowly close to unstable regions. Adaptive control strategies are developed to expand the stable operations and to improve the fuel efficiency that was commonly compromised by LTC. Engine cycle simulations were performed to better design the combustion control models. The research platform consists of an advanced common-rail diesel engine modified for the intensified single cylinder research and a set of embedded real-time (RT) controllers, field programmable gate array (FPGA) devices, and a synchronized personal computer (PC) control and measurement system. Up to 12 fuel injection pulses per cylinder per cycle have been applied to modulate the homogeneity history of the cylinder charge in hybrid combustion modes in order to improve the phasing and completeness of combustion under independently controlled exhaust gas recirculation, intake boost, and exhaust backpressure.

Low temperature combustion (LTC), though effective to reduce soot and oxides of nitrogen (NOx) simultaneously from diesel engines, operates in narrowly close to unstable regions. Adaptive control strategies are developed to expand the stable operations and to improve the fuel efficiency that was commonly compromised by LTC. Engine cycle simulations were performed to better design the combustion control models. The research platform consists of an advanced common-rail diesel engine modified for the intensified single cylinder research and a set of embedded real-time (RT) controllers, field programmable gate array (FPGA) devices, and a synchronized personal computer (PC) control and measurement system. Up to 12 fuel injection pulses per cylinder per cycle have been applied to modulate the homogeneity history of the cylinder charge in hybrid combustion modes in order to improve the phasing and completeness of combustion under independently controlled exhaust gas recirculation, intake boost, and exhaust backpressure.

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Technical Specifications

  SAE International
Product Category Standards and Technical Documents
Product Number 2009-01-0730
Product Name An Enabling Study of Diesel Low Temperature Combustion via Adaptive Control
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