A Simulative Approach to Predict Energy Consumption of Future Powertrain Configurations for the Year 2040

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This book deals with the simulative prediction of efficiency and CO2-emissions of future powertrain systems for the year 2040. For this purpose, a suitable simulation environment is first created. This is followed by a technology extrapolation of all relevant powertrain systems, for example: combustion engines, electric drives, fuel cells as well as all relevant additional components. These components are then used to build 57 vehicle variants for the simulation. Finally, extensive simulations of the vehicle variants are carried out, evaluated and compared. Comprehensive tables of results are available for all simulated vehicle variants. The evaluations are of interest to anyone concerned with energy consumption and CO2-emissions of future vehicles.

Author(s): Tobias Stoll
Series: Wissenschaftliche Reihe Fahrzeugtechnik Universität Stuttgart
Publisher: Springer Vieweg
Year: 2023

Language: English
Pages: 244
City: Stuttgart

Preface
Table of Contents
List of Figures
List of Tables
List of Abbreviations
List of Symbols
Abstract
Kurzfassung
1 Introduction
2 Modelling Methods
2.1 Internal Combustion Engines
2.2 Electric Drive Systems
2.2.1 Permanent Magnet Synchronous Motor
2.2.2 Induction Motor
2.2.3 Power Electronics
2.3 Battery Cells
2.4 Fuel Cell System
2.4.1 Fuel Cell Stack
2.4.2 Air Supply
2.4.3 Fuel Supply
2.4.4 Electrical Functionalities and Control
2.4.5 Implementation in Simulation
2.5 Transmission
2.5.1 Automated gearboxes
2.5.2 Manual gearboxes
2.5.3 Differential gearboxes
2.5.4 Electronically Controlled Multi-Plate Clutch
3 Development in Powertrain Technology
3.1 Internal Combustion Engines
3.1.1 Gasoline Engine (High Efficiency Concept)
3.1.2 Gasoline Engine (Budget Optimized Concept)
3.1.3 Gasoline Engine (Range Extender Concept)
3.1.4 Natural Gas Engine
3.1.5 Diesel Engine
3.2 Electric Drive Systems
3.2.1 Permanent Magnet Synchronous Motor
3.2.2 Induction Motor
3.2.3 Power Electronics
3.3 Battery Systems
3.3.1 High Power Battery Cells
3.3.2 Medium Power Battery Cells
3.3.3 High Energy Battery Cells
3.4 Fuel Cell Systems
3.5 Transmissions
3.6 Tank and Charging Systems
4 Powertrain Simulation
4.1 Vehicle Models
4.2 Powertrain Component Models
4.3 Powertrain Design
4.4 Drive Cycles
4.5 Operating Strategies
4.5.1 Consumption Minimization Strategy
4.5.2 Equivalent Consumption Minimization Strategy for parallel hybrid powertrains
4.5.3 Equivalent Consumption Minimization Strategy for serial hybrid powertrains
4.5.4 Selective Equivalent Consumption Minimization Strategy for serial/parallel hybrid powertrains
4.5.5 Additional Control Strategy Parameters
5 Results of Powertrain Simulation
5.1 Sedan
5.2 Sport Utility Vehicle
5.3 Light-Duty Vehicle
5.4 Conclusion
6 Summary and Conclusion
Bibliography
Appendix
A1. Simulation Data Sheets
A2. Drive Cycle Data Sheets