FISITA 2012世界汽車工程年會論文集和摘要集
定 價(jià):680 元
叢書名:高等學(xué)校機(jī)械基礎(chǔ)課程系列教材
- 作者:中國汽車工程學(xué)會 ,國際汽車工程學(xué)會聯(lián)合會 編
- 出版時(shí)間:2012/11/1
- ISBN:9787564069872
- 出 版 社:北京理工大學(xué)出版社
- 中圖法分類:U46-53
- 頁碼:1180
- 紙張:膠版紙
- 版次:1
- 開本:16開
《FISITA 2012世界汽車工程年會論文集和摘要集》主要內(nèi)容包括:Multi-Coil High Frequency Spark Ignition to Extend Diluted Combustion Limits、Multiple Injection and Boosting Benefits for Improved Fuel Consumption on a Spray Guided Direct Injection Gasoline Engine、Gray Cast Iron Cylinder Head Thermal Mechanical Fatigue Analysis、Development of FAW 2.0 L Turbocharged Gasoline Direct Injection Engine、Faw V6 High Performance Gasoline Engine for Executive Class Car、Air System Proposal and Testing for a Downsized Two-Stroke Diesel Engine等。
Volume 1 Advanced Internal Combustion Engines (Ⅰ)
Part Ⅰ New Gasoline Direct Injection (GDI), Spark Ignition (SI) and Compression Ignition (CI) Engines and Components
F2012-A01-003
A Novel Mechanism for Piston Deactivation Improving the Part Load Performances of Multi Cylinder Engmes
F2012-A01-004
Novel Crankshaft Mechanism and Regenerative Braking System to Improve the Fuel Economy of Passenger Cars
F2012-A01-006
Experimental Investigation on Fuel Spray Optimization in Gasoline Direct Injection Engine
F2012-A01-012
Improvement of Fuel Economy and Vehicle Performance Through Pneumatic Regenerative Engine Braking Device (Reneged)
F2012-A01-013
CAI Combustion of Gasoline and Its Mixture with Ethanol in a 2-Stroke Poppet Valve Dl Gasoline Engine
F2012-A01-016
Technologies for the Next Generation of Downsized Gasoline Engines
F2012-A01-019
Control System Development for Gasoline HCCI Engine Which Based on Heat Management
F2012-A01-021
The Effect ofAdvanced Combustion Control Features on the Performance of a Highly Downsized Gasoline englne
F2012- A01-023
HCCI Cycle-by-Cycle Combustion Phase Control Based on Ion Current Technology in GDI Engine
F2012-A01-024
Efforts on Fuel Economy Improvement of l.3 L TGDI Gasoline Engine
F2012-A01-026
Development ofTwo-Stage Turbocharger System with Electric Supercharger
F2012-A01-027
Effect of the Injection Method in DI CNG Engine on the Flame Propagation Process and Engine Performance
F2012-A01-030
Analysis ofthe Wear Behavior of Combustion Engine Components Using Radionuclide-Technique
F2012-A01-031
A Super Clean Diesel Vehicle for US LEV-III SULEV Category: Second Report; Advanced A/F Control for NOx Reduction and for SCR Heat Up
F2012-A01-033
Research on Low Temperature Combustion of Homogeneous Charge Induced Ignition (HCII) in a Light-Duty Diesel Engine
F2012-A01-039
The Impact of Modified Piston in Two Stroke Engine on Toxic Emissions and Fuel Consumption
F2012-A01-040
Multi-Coil High Frequency Spark Ignition to Extend Diluted Combustion Limits
F2012-A01-041
Multiple Injection and Boosting Benefits for Improved Fuel Consumption on a Spray Guided Direct Injection Gasoline Engine
F2012-A01-042
Gray Cast Iron Cylinder Head Thermal Mechanical Fatigue Analysis
F2012-A01-043
Development of FAW 2.0 L Turbocharged Gasoline Direct Injection Engine
F2012-A01-044
Faw V6 High Performance Gasoline Engine for Executive Class Car
F2012-A01-045
Air System Proposal and Testing for a Downsized Two-Stroke Diesel Engine
Part Ⅱ Fuel Injection and Sprays
F2012-A02-003
Spray Characteristics ofa Fuel Injector: a CFD Study
F2012-A02-008
Co-Simulation Modeling of High-Pressure Fuel System and Engine Performance System and Control System in Common Rail Diesel Engine
F2012-A02-011
Applying a Diesel Spray Model with Different Size Distribution Functions to High Pressure Diesel Spray Cases
F2012-A02-012
Influence of Diesel Surrogates on the Behavior of Simplified Spray Models
F2012-A02-013
Coupled lD/2D/3D Modeling of Common Rail Injector Flow and Nozzle Cavitation
F2012-A02-014
Predicting the Effect of Fuel Path Controllable Parameters on the Performance of Combustion Controlled Diesel Engine
……
Volume 2 Advanced Internal Combustion Engines (Ⅱ)
Volume 3 Future Automotive Powertrains (Ⅰ)
Volume 4 Future Automotive Powertrains(Ⅱ)
Volume 5 Advanced Transmission System and Driveline
Volume 6 Vehicle Electronics
Volume 7 Vehicle Design and Testing (Ⅰ)
Volume 8 Vehicle Design and Testing (Ⅱ)
Volume 9 Automotive Safety Technology
Volume 10 Chassis Systems and Integration Technology
Volume 11 Advanced Vehicle Manufacturing Technology
Volume 12 Intelligent Transport System (ITS) & Internet of Vehicles
Volume 13 Noise, Vibration and Harshness (NVH)
Research on Torque-Angle Tightening of High Strength Bolt in Internal Combustion Engine
Wenfeng Zhan, Jian Wu, Fake Shao, Chuhua Huang
Guangzhou Automobile Group Co., Ltd. Automotive Engineering Institute, China KEYWORDS - bolt, torque-angle tightening, elastic, plastic, elongation
ABSTRACT
Research and/or engineering questions/objectives:
Torque-angle tightening is widely used in the internal combustion engine. Actually, torque-angle tightening is an indirect method of length measurement tightening, used to make the bolt's plastic elongation rate right after tightening. Usually, the bolt's plastic elongation after tightening could only be measured by experiments. We researched on how to calculate the plastic elongation of the bolt after tightening when both elastic and plastic elongations occur, considering the tolerance of the torque and angle-what is the most important point but never be mentioned in most ofthe research.
Methodology:
We calculated the bolt's preload and elongation after tightening based on the handbook of mechanical design on the assumption that all the elongation was elastic. At the same time we calculate the bolt's limited preload according to the VDI 2230 base on the material. Then we can work out the bolt's actual preload and plastic elongation and so on according to the two calculations mentioned above. All these were shown clearly in a figure. Finally we validated the calculation's result by experiments.
Results:
We found out a simple and efficient way to calculate the plastic elongation of the torque-angle tightening bolt, which was also proved coincident with the experiments. We can make sure the tighten method without the experiments, which was very useful when designing the high performance bolt connection.
Limitations of this study:
In order to calculate the stiffness of the bolt and boss exactly, we should use FEA method instead of conventional method,especially when the boss was more complicated than a simple cylinder.
……