This is the first comprehensive book on the autonomous vehicles as a part of the smart transportation systems. It was written by scientists and engineers who had been actively contributing to the development of technical knowledge in this field. The authors tried to cover both the theoretical backgr
Autonomous Vehicles for Public Transportation
✍ Scribed by Călin Iclodean, Bogdan Ovidiu Varga, Nicolae Cordoș
- Publisher
- Springer
- Year
- 2022
- Tongue
- English
- Leaves
- 461
- Series
- Green Energy and Technology
- Category
- Library
No coin nor oath required. For personal study only.
✦ Synopsis
This book presents an interdisciplinary approach to autonomous driving technology design and development. It discusses a methodology of simulation that allows specialists to evaluate autonomous vehicle sensors functionality and integration, energy flow, efficiency, range, and service under public transport.
The design, calibration, and physical model behind each autonomous vehicle sensor and component is explained. For each specific vehicle, the powertrain is analyzed, and output results are presented through the use of specific automotive industrial software (IPG CarMaker).
The book gives the reader a clear perspective of the key factors influencing the global functionality of autonomous shuttle buses with respect to both their inner components the variable exterior factors and an exhaustive legal perspective in relation of their presence on public roads.
✦ Table of Contents
Foreword
Acknowledgements
Introduction
References
Contents
About the Authors
Abbreviations
1 Autonomous Driving Basics
1.1 Autonomous Driving History
1.2 Levels of Driving Automation
1.3 Autonomous Driving Small/Medium Vehicles
1.4 Autonomous Driving for Public Transportation
References
2 Autonomous Driving Technical Characteristics
2.1 Powertrain Architecture
2.1.1 Overview
2.1.2 Driveline
2.1.3 High Voltage Battery
2.1.4 Charging System
2.1.5 Steering Systems
2.1.6 Braking System
2.2 Sensor Systems
2.2.1 Overview
2.2.2 Lidar
2.2.3 Radar
2.2.4 Video Camera
2.2.5 GPS/GNSS
2.2.6 Ultrasonic Sensors
2.3 Vehicle Connections
2.3.1 Vehicle-to-Everything (V2X)
2.3.2 Vehicle-to-Vehicle (V2V)
2.3.3 Vehicle-to-Infrastructure (V2I)
2.3.4 Vehicle-to-Pedestrian (V2P)
References
3 Autonomous Driving Systems
3.1 Autonomous Driving Algorithm
3.1.1 Overview
3.1.2 Perception
3.1.3 Prediction
3.1.4 Planning
3.1.5 Motion Control
3.1.6 Object Classification Mechanism
3.2 Electronic Control Unit of Autonomous Driving System
3.2.1 Overview
3.2.2 Hardware Architecture
3.2.3 Software Architecture
3.3 Autonomous Drive Platform
3.3.1 Vehicle Platform
3.3.2 Hardware Platform
3.3.3 Software Platform
3.3.4 Cloud Platform
References
4 Safety and Cybersecurity
4.1 Safety
4.1.1 Functional Safety
4.1.2 Minimal Risk Operations
4.2 Cybersecurity
4.2.1 Security Objectives
4.2.2 Online Security
4.2.3 Security at the Vehicle Level
4.2.4 Security at the Component Level
References
5 Route Specification
5.1 Local Map Generator
5.1.1 Plane Map: Construction and Optimization
5.1.2 Grid Map: Multi-layer Generation
5.1.3 Local Map: Static and Dynamic Objects
5.2 Virtual Route Digitization
5.2.1 Real Map: Coordinates of the Selected Route
5.2.2 Full 3D Map: Map of the Environment
5.2.3 Digitization of the Virtual Road
5.2.4 Scenario for Virtual Road
References
6 Virtual Model
6.1 Virtual Model Development Methodology
6.2 Virtual Model for Navya Shuttle Bus
6.2.1 Simulation Tools CarMaker
6.2.2 Mathematical Model of the Virtual Configuration
6.2.3 Algorithm of Simulation Process
6.2.4 Constructive Architecture of the Virtual Configuration
6.2.5 Results of Simulation Process
References
7 Legal Framework
7.1 European Legislation
7.1.1 French Republic
7.1.2 Federal Republic of Germany
7.1.3 Italian Republic
7.1.4 Netherlands
7.1.5 United Kingdom
7.1.6 Kingdom of Spain
7.1.7 Hellenic Republic
7.1.8 Romania
7.2 United States Legislation
7.2.1 Alabama (AL)
7.2.2 Arizona (AZ)
7.2.3 Arkansas (AR)
7.2.4 California (CA)
7.2.5 Colorado (CO)
7.2.6 Connecticut (CT)
7.2.7 Florida (FL)
7.2.8 Georgia (GA)
7.2.9 Hawaii (HI)
7.2.10 Illinois (IL)
7.2.11 Iowa (IA)
7.2.12 Kentucky (KY)
7.2.13 Louisiana (LA)
7.2.14 Maine (ME)
7.2.15 Maryland (MD)
7.2.16 Mississippi (MS)
7.2.17 Nebraska (NE)
7.2.18 Nevada (NV)
7.2.19 New Hampshire (NH)
7.2.20 New Jersey (NJ)
7.2.21 New Mexico (NM)
7.2.22 North Carolina (NC)
7.2.23 North Dakota (ND)
7.2.24 Ohio (OH)
7.2.25 Oregon (OR)
7.2.26 Pennsylvania (PA)
7.2.27 South Carolina (SC)
7.2.28 Tennessee (TN)
7.2.29 Texas (TX)
7.2.30 Utah (UT)
7.2.31 Vermont (VT)
7.2.32 Washington (WA)
7.2.33 Wisconsin (WI)
7.3 People’s Republic of China Legislation
7.4 Commonwealth of Australia Legislation
7.5 Japan Legislation
7.6 Insuring Autonomous Vehicles
References
8 Social Implication
8.1 Social Impact
8.2 Advantages and Benefits
8.3 Disadvantages and Solutions
8.4 Autonomous Vehicles in Use. Case Studies
8.4.1 Europe
8.4.2 United States
8.4.3 China
8.4.4 Australia
References
Conclusions
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