Computer aided engineering in diesel exhaust aftertreatment systems design

被引:13
作者
Stamatelos, AM [1 ]
Koltsakis, GC [1 ]
Kandylas, IP [1 ]
Pontikakis, GN [1 ]
机构
[1] Aristotelian Univ Salonika, Dept Mech Engn, Lab Appl Thermodynam, GR-54006 Salonika, Greece
关键词
diesel exhaust emissions; CAE methodology; optimization; mathematical modelling; catalytic converters; particulate traps;
D O I
10.1243/0954407991527099
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
Computer aided engineering (CAE) methodologies are increasingly being applied to assist the design of spark-ignition (SI) engine exhaust aftertreatment systems in view of the stage III and IV emissions standards. Following this trend, the design of diesel exhaust aftertreatment systems is receiving more attention owing to the capabilities of recently developed mathematical models. The design of diesel exhaust systems must cope with three major aftertreatment categories: diesel oxidation catalysts, diesel particulate filters and de-NOx catalytic converters. An integrated CAE methodology that could assist the design of all these classes of systems is described in this paper. It employs the following computational tools: a computer code for modelling transient exhaust system heat transfer, a computer code for modelling the transient operation of a diesel oxidation or a de-NOx catalytic converter, a database containing chemical kinetics data for a variety of oxidation and de-NOx catalyst formulations and a computer code for modelling the loading and regeneration behaviour of a wall-flow filter, assisted by catalytic fuel additives. Application of the CAE methodology, which helps the exhaust aftertreatment system design engineer to meet the future emissions standards, is highlighted by referring to a number of representative case studies.
引用
收藏
页码:545 / 560
页数:16
相关论文
共 50 条
[31]   Computer Aided Design and Structural Optimization for Microwave Components [J].
Mahdi, N. ;
Bila, S. ;
Verdeyme, S. ;
Aubourg, M. ;
Durousseau, C. ;
Bessaudou, A. ;
Puech, J. ;
Estagerie, L. ;
Pacaud, D. ;
Leblond, H. .
2012 42ND EUROPEAN MICROWAVE CONFERENCE (EUMC), 2012, :1245-1248
[32]   Optimal design of aircraft wing structures: A computer aided design method [J].
Ampofo, J ;
Ferguson, F .
ROBOTICS, AUTOMATION AND CONTROL AND MANUFACTURING: TRENDS, PRINCIPLES AND APPLICATIONS, 2002, 14 :471-480
[33]   Computer-aided design for optimum concrete mixtures [J].
Yeh, I-Cheng .
CEMENT & CONCRETE COMPOSITES, 2007, 29 (03) :193-202
[34]   Application of Computer Aided Technology in Interior Art Design [J].
Yu N. ;
Guo S. .
Computer-Aided Design and Applications, 2022, 19 (S8) :23-32
[35]   Computer Aided Design of a New Universal Clamping Mechanism [J].
Li, Jeremy .
Advance Materials Development and Applied Mechanics, 2014, 597 :417-420
[36]   A Review on Computer-Aided Design and Manufacturing Processes in Design and Architecture [J].
Shivegowda, Monika Dyavenahalli ;
Boonyasopon, Pawinee ;
Rangappa, Sanjay Mavinkere ;
Siengchin, Suchart .
ARCHIVES OF COMPUTATIONAL METHODS IN ENGINEERING, 2022, 29 (06) :3973-3980
[37]   A review of bioinspired computer-aided design tools for hardware design [J].
Lanchares, Juan ;
Garnica, Oscar ;
Fernandez-de-Vega, Francisco ;
Ignacio Hidalgo, J. .
CONCURRENCY AND COMPUTATION-PRACTICE & EXPERIENCE, 2013, 25 (08) :1015-1036
[38]   A computer-aided molecular design framework for crystallization solvent design [J].
Karunanithi, AT ;
Achenie, LEK ;
Gani, R .
CHEMICAL ENGINEERING SCIENCE, 2006, 61 (04) :1247-1260
[39]   Five decades of Computer-Aided Ship Design [J].
Nowacki, Horst .
COMPUTER-AIDED DESIGN, 2010, 42 (11) :956-969
[40]   Computer aided path design for filament winding torus [J].
Li, Haisheng ;
Ma, Yonghao ;
Li, Mingkun .
JOURNAL OF REINFORCED PLASTICS AND COMPOSITES, 2022, 41 (21-22) :861-869