Rail Vehicle Mechatronics Ground Vehicle Engineering Series
Auteurs : Spiryagin Maksym, Bruni Stefano, Bosomworth Christopher, Wolfs Peter, Cole Colin
This unique and up-to-date work surveys the use of mechatronics in rail vehicles, notably traction, braking, communications, data sharing, and control. The results include improved safety, comfort, and fuel efficiency.
Mechatronic systems are a key element in modern rail vehicle design and operation. Starting with an overview of mechatronic theory, the book covers such topics as modeling of mechanical and electrical systems for rail vehicles, open and closed loop control systems, sensors, actuators, and microprocessors. Modern simulation techniques and examples are included throughout the book. Numerical experiments and developed models for railway application are presented and explained. Case studies are used, alongside practical examples, to ensure that the reader can apply mechatronic theory to real world conditions. These case studies include modeling of a hybrid locomotive and simplified models of railway vehicle lateral dynamics for suspension control studies.
Rail Vehicle Mechatronics provides current and in-depth content for design engineers, operations managers, systems engineers, and technical consultants working with freight, passenger, and urban transit railway systems worldwide.
Chapter 1 Introduction to Rail Vehicle Mechatronics
Chapter 2 Modeling of Mechanical Systems for Rail Vehicles
Chapter 3 Modeling of Electrical Systems for Rail Vehicles
Chapter 4 Control Systems
Chapter 5 Actuators
Chapter 6 Sensors
Chapter 7 Modeling of Complex Systems
Chapter 8 Microprocessor Computers and Electronics
Chapter 9 Communications, Networks, and Data Exchange Protocols
Chapter 10 Data Acquisition and Data Processing Techniques
Chapter 11 Mechatronic Suspensions
Chapter 12 Real-Time Systems and Simulation
Chapter 13 System Integration
Chapter 14 Practical Examples and Case Studies
Maksym Spiryagin is the Deputy Director of the Centre for Railway Engineering and a Professor of Engineering at Central Queensland University. He received his PhD in the field of Railway Transport in 2004. Professor Spiryagin’s involvement in academia and railway industry projects includes many years of research experience in locomotive design and traction, rail vehicle dynamics, contact mechanics, wear, mechatronics and the development of complex systems using various approaches. He has published four books, including ‘Design and simulation of rail vehicles’ in 2014 and ‘Design and simulation of heavy haul locomotives and trains’ in 2017, and he has more than two hundred other scientific publications and twenty patents as one of the inventors. Professor Spiryagin is a Chartered Professional Engineer and RPEQ in Australia and a Chartered Engineer in the UK.
Stefano Bruni is full professor at Politecnico di Milano, Department of Mechanical Engineering, where he teaches applied mechanics and dynamics. He is the leader of the "Railway Dynamics" research group, carrying out research on rail vehicles and their interaction with the infrastructure. Prof. Bruni authored over 270 scientific papers, mostly related to rail vehicle dynamics, train-track interaction, wheel/rail contact forces, damage and wear of wheels and rails, active control and condition monitoring of rail vehicles, and pantograph-catenary interaction. He is / has been lead scientist for several research projects funded by the railway industry and by the European Commission. He is Vice-President of the IAVSD, the International Association for Vehicle System Dynamics, and was chairman of the IAVSD’05 International conference held in Milano in 2005. He is Editorial Board member for some international journals in the field of Railway Engineering.
Chris Bosomworth has worked for the Centre for Railway Engineering at Central Queensland University for over 15 years, firstly on soft
Date de parution : 12-2021
15.6x23.4 cm
Thèmes de Rail Vehicle Mechatronics :
Mots-clés :
Mechatronic Systems; Rail Vehicle; Railway Vehicle; Active Steering Systems; Creep Forces; Secondary Suspension; Bogie Frame; Multi-body Model; Semi-active Suspensions; Track Shift Forces; Co-simulation Approach; Simpack Model; Active Secondary Suspension; Pantograph Catenary Interaction; Primary Suspensions; Traction Motors; Heavy Haul Locomotive; DC Bus; Track Irregularities; Diesel Electric Locomotive; Co-simulation Process; RCF Damage; Skyhook Control; Directional Control Valve; Fir Filter