Simulation used as the engineers testbench
Practical guidelines, rules and recommendations for simulation of combustion
Professor Dr.-Ing. habil. Günter Peter Merker received is Dr.-Ing. for his thesis on Thermodynamics in Munich, where he received the venia legendi as well. Since 1994 he is Professor for Applied Thermodynamics at Hannover University, Faculty of Mechanical Engineering, and renown for his scientific work for major public and industrial research institutions.
Professor Dr.-Ing.habil Christian Schwarz studied Mechanical Engineering in Munich. Since 1997 Professor Schwarz is employed by BMW AG.
Dr.-Ing. habil Gunnar Stiesch studied Mechanical Engineering at Hannover University and University of Wisconsin-Madison. In the year 2000 he was research fellow at the Engine Research Center at the University of Wisconsin-Madison. Since 2003 Dr. Stiesch is a researcher for MTU Friedrichshafen GmbH.
Dr. rer. nat. Frank Otto studied Physics Heidelberg University, where he finished his PhD-Thesis 1991. Since 2002 Dr. Otto works as a Projectmanager for Daimler Chrysler AG.
The numerical simulation of combustion processes in internal combustion engines, including also the formation of pollutants, has become increasingly important in the recent years, and today the simulation of those processes has already become an indispensable tool when - veloping new combustion concepts. While pure thermodynamic models are well-established tools that are in use for the simulation of the transient behavior of complex systems for a long time, the phenomenological models have become more important in the recent years and have also been implemented in these simulation programs. In contrast to this, the thr- dimensional simulation of in-cylinder combustion, i. e. the detailed, integrated and continuous simulation of the process chain injection, mixture formation, ignition, heat release due to combustion and formation of pollutants, has been significantly improved, but there is still a number of challenging problems to solve, regarding for example the exact deillegalscription of s- processes like the structure of turbulence during combustion as well as the appropriate choice of the numerical grid. While chapter 2 includes a short introduction of functionality and operating modes of internal combustion engines, the basics of kinetic reactions are presented in chapter 3. In chapter 4 the physical and chemical processes taking place in the combustion chamber are described. Ch- ter 5 is about phenomenological multi-zone models, and in chapter 6 the formation of poll- ants is described.
into the functioning of internal combustion engines.- Foundations of reaction kinetics.- Engine combustion.- Phenomenological combustion models.- Pollutant formation.- Calculation of the real working process.- Total process analysis.- Fluid mechanical simulation.
The content spans from simple thermodynamics of the combustion engine to complex models for the deillegalscription of the air/fuel mixture, ignition, combustion and pollutant formation considering the engine periphery of petrol and diesel engines. Thus the emphasis of the book is on the simulation models and how they are applicable for the development of modern combustion engines. Computers can be used as the engineers testbench following the rules and recommandations described here.
Professor Dr.-Ing. habil. Günter Peter Merker received is Dr.-Ing. for his thesis on Thermodynamics in Munich, where he received the venia legendi as well. Since 1994 he is Professor for Applied Thermodynamics at Hannover University, Faculty of Mechanical Engineering, and renown for his scientific work for major public and industrial research institutions.
Professor Dr.-Ing.habil Christian Schwarz studied Mechanical Engineering in Munich. Since 1997 Professor Schwarz is employed by BMW AG.
Dr.-Ing. habil Gunnar Stiesch studied Mechanical Engineering at Hannover University and University of Wisconsin-Madison. In the year 2000 he was research fellow at the Engine Research Center at the University of Wisconsin-Madison. Since 2003 Dr. Stiesch is a researcher for MTU Friedrichshafen GmbH.
Dr. rer. nat. Frank Otto studied Physics Heidelberg University, where he finished his PhD-Thesis 1991. Since 2002 Dr. Otto works as a Projectmanager for Daimler Chrysler AG.
Über den Autor
Professor Dr.-Ing. habil. Günter Peter Merker received is Dr.-Ing. for his thesis on Thermodynamics in Munich, where he received the venia legendi as well. Since 1994 he is Professor for Applied Thermodynamics at Hannover University, Faculty of Mechanical Engineering, and renown for his scientific work for major public and industrial research institutions. nProfessor Dr.-Ing.habil Christian Schwarz studied Mechanical Engineering in Munich. Since 1997 Professor Schwarz is employed by BMW AG.nDr.-Ing. habil Gunnar Stiesch studied Mechanical Engineering at Hannover University and University of Wisconsin-Madison. In the year 2000 he was research fellow at the Engine Research Center at the University of Wisconsin-Madison. Since 2003 Dr. Stiesch is a researcher for MTU Friedrichshafen GmbH.nDr. rer. nat. Frank Otto studied Physics Heidelberg University, where he finished his PhD-Thesis 1991. Since 2002 Dr. Otto works as a Projectmanager for Daimler Chrysler AG.
Inhaltsverzeichnis
into the functioning of internal combustion engines.- Foundations of reaction kinetics.- Engine combustion.- Phenomenological combustion models.- Pollutant formation.- Calculation of the real working process.- Total process analysis.- Fluid mechanical simulation.
Klappentext
The numerical simulation of combustion processes in internal combustion engines, including also the formation of pollutants, has become increasingly important in the recent years, and today the simulation of those processes has already become an indispensable tool when - veloping new combustion concepts. While pure thermodynamic models are well-established tools that are in use for the simulation of the transient behavior of complex systems for a long time, the phenomenological models have become more important in the recent years and have also been implemented in these simulation programs. In contrast to this, the thr- dimensional simulation of in-cylinder combustion, i. e. the detailed, integrated and continuous simulation of the process chain injection, mixture formation, ignition, heat release due to combustion and formation of pollutants, has been significantly improved, but there is still a number of challenging problems to solve, regarding for example the exact deillegalscription of s- processes like the structure of turbulence during combustion as well as the appropriate choice of the numerical grid. While chapter 2 includes a short introduction of functionality and operating modes of internal combustion engines, the basics of kinetic reactions are presented in chapter 3. In chapter 4 the physical and chemical processes taking place in the combustion chamber are described. Ch- ter 5 is about phenomenological multi-zone models, and in chapter 6 the formation of poll- ants is described.
Simulation used as the engineers testbench
Practical guidelines, rules and recommendations for simulation of combustion
