Harmonic Balance Finite Element Method
Applications in Nonlinear Electromagnetics and Power Systems
Published on 1. August 2016
288 pages
978-1-118-97579-4 (ISBN)
Description
The first book applying HBFEM to practical electronic nonlinear field and circuit problems
* Examines and solves wide aspects of practical electrical and electronic nonlinear field and circuit problems presented by HBFEM
* Combines the latest research work with essential background knowledge, providing an all-encompassing reference for researchers, power engineers and students of applied electromagnetics analysis
* There are very few books dealing with the solution of nonlinear electric- power-related problems
* The contents are based on the authors' many years' research and industry experience; they approach the subject in a well-designed and logical way
* It is expected that HBFEM will become a more useful and practical technique over the next 5 years due to the HVDC power system, renewable energy system and Smart Grid, HF magnetic used in DC/DC converter, and Multi-pulse transformer for HVDC power supply
* HBFEM can provide effective and economic solutions to R&D product development
* Includes Matlab exercises
More details
Other editions
Additional editions
Junwei Lu | Xiaojun Zhao | Sotoshi Yamada
Harmonic Balance Finite Element Method
Applications in Nonlinear Electromagnetics and Power Systems
Book
11/2016
Wiley-IEEE Press
€149.00
Shipment within 15-20 days
Software
08/2016
Wiley
€181.74
No shipping information available
Persons
Junwei Lu, Professor, Griffith School of Engineering, Griffith University, Australia. Professor Lu has developed Harmonic Balance FEM techniques for nonlinear magnetics and Time Domain FEM techniques for wave propagation problems, and has been working in this area since 1985. He has taught numerical techniques in EM, power electronics and electric machines, power transmission and distribution, advanced communications systems since 1993. He holds over 10 international patents related to smart antennas arrays, high frequency transformers and inductor, and other high frequency magnetic devices. His research interests include Computational Electromagnetics, EMC computer modelling and simulation, high frequency magnetics, smart mobile terminal antennas, MEMS devices, and smart transformer used in renewable energy system and smart grid, and EV technology.
Xiaojun Zhao is researcher at the State Key Laboratory of Alternate Electrical Power System with Renewable Energy Source, North China Electric Power University, China. His main research interests are engineering electromagnetic field analysis, DC bias phenomena in power transformers, and modeling properties of magnetic material.
Sotoshi Yamada received the B.E. and M.E. degrees from the Department of Electrical Engineering, Kanazawa University, Kanazawa, Japan, in 1972 and 1974, respectively. He received the Dr. Eng. degree from Kyushu University, Fukuoka, Japan, in 1985. From 1974 to 1992, he was with the Department of Electrical and Computer Engineering, Faculty of Engineering, Kanazawa University. He has been Professor at Laboratory of Magnetic Field Control and Applications since 1992 and is engaged in research on power magnetic devices, the numerical electromagnetic field calculation, biomagnetics, etc.
Content
- Intro
- Title Page
- Copyright
- Contents
- Preface
- About the Companion Website
- Chapter 1 Introduction to Harmonic Balance Finite Element Method (HBFEM)
- 1.1 Harmonic Problems in Power Systems
- 1.1.1 Harmonic Phenomena in Power Systems
- 1.1.2 Sources and Problems of Harmonics in Power Systems
- 1.1.3 Total Harmonic Distortion (THD)
- 1.2 Definitions of Computational Electromagnetics and IEEE Standards 1597.1 and 1597.2
- 1.2.1 ``The Building Block´´ of the Computational Electromagnetics Model
- 1.2.2 The Geometry of the Model and the Problem Space
- 1.2.3 Numerical Computation Methods
- 1.2.4 High-Performance Computation and Visualization (HPCV) in CEM
- 1.2.5 IEEE Standards 1597.1 and 1597.2 for Validation of CEM Computer Modeling and Simulations
- 1.3 HBFEM Used in Nonlinear EM Field Problems and Power Systems
- 1.3.1 HBFEM for a Nonlinear Magnetic Field With Current Driven
- 1.3.2 HBFEM for Magnetic Field and Electric Circuit Coupled Problems
- 1.3.3 HBFEM for a Nonlinear Magnetic Field with Voltage Driven
- 1.3.4 HBFEM for a Three-Phase Magnetic Tripler Transformer
- 1.3.5 HBFEM for a Three-Phase High-Speed Motor
- 1.3.6 HBFEM for a DC-Biased 3D Asymmetrical Magnetic Structure Simulation
- 1.3.7 HBFEM for a DC-Biased Problem in HV Power Transformers
- References
- Chapter 2 Nonlinear Electromagnetic Field and Its Harmonic Problems
- 2.1 Harmonic Problems in Power Systems and Power Supply Transformers
- 2.1.1 Nonlinear Electromagnetic Field
- 2.1.2 Harmonics Problems Generated from Nonlinear Load and Power Electronics Devices
- 2.1.3 Harmonics in the Time Domain and Frequency Domain
- 2.1.4 Examples of Harmonic Producing Loads
- 2.1.5 Harmonics in DC/DC Converter of Isolation Transformer
- 2.1.6 Magnetic Tripler
- 2.1.7 Harmonics in Multi-Pulse Rectifier Transformer
- 2.2 DC-Biased Transformer in High-Voltage DC Power Transmission System
- 2.2.1 Investigation and Suppression of DC Bias Phenomenon
- 2.2.2 Characteristics of DC Bias Phenomenon and Problems to be Solved
- 2.3 Geomagnetic Disturbance and Geomagnetic Induced Currents (GIC)
- 2.3.1 Geomagnetically Induced Currents in Power Systems
- 2.3.2 GIC-Induced Harmonic Currents in the Transformer
- 2.4 Harmonic Problems in Renewable Energy and Microgrid Systems
- 2.4.1 Power Electronic Devices - Harmonic Current and Voltage Sources
- 2.4.2 Harmonic Distortion in Renewable Energy Systems
- 2.4.3 Harmonics in the Microgrid and EV Charging System
- 2.4.4 IEEE Standard 519-2014
- References
- Chapter 3 Harmonic Balance Methods Used in Computational Electromagnetics
- 3.1 Harmonic Balance Methods Used in Nonlinear Circuit Problems
- 3.1.1 The Basic Concept of Harmonic Balance in a Nonlinear Circuit
- 3.1.2 The Theory of Harmonic Balance Used in a Nonlinear Circuit
- 3.2 CEM for Harmonic Problem Solving in Frequency, Time and Harmonic Domains
- 3.2.1 Computational Electromagnetics (CEM) Techniques and Validation
- 3.2.2 Time Periodic Electromagnetic Problems Using the Finite Element Method (FEM)
- 3.2.3 Comparison of Time-Periodic Steady-State Nonlinear EM Field Analysis Method
- 3.3 The Basic Concept of Harmonic Balance in EM Fields
- 3.3.1 Definition of Harmonic Balance
- 3.3.2 Harmonic Balance in EM Fields
- 3.3.3 Nonlinear Medium Description
- 3.3.4 Boundary Conditions
- 3.3.5 The Theory of HB-FEM in Nonlinear Magnetic Fields
- 3.3.6 The Generalized HBFEM
- 3.4 HBFEM for Electromagnetic Field and Electric Circuit Coupled Problems
- 3.4.1 HBFEM in Voltage Source-Driven Magnetic Field
- 3.4.2 Generalized Voltage Source-Driven Magnetic Field
- 3.5 HBFEM for a DC-Biased Problem in High-Voltage Power Transformers
- 3.5.1 DC-Biased Problem in HVDC Transformers
- 3.5.2 HBFEM Model of HVDC Transformer
- References
- Chapter 4 HBFEM for Nonlinear Magnetic Field Problems
- 4.1 HBFEM for a Nonlinear Magnetic Field with Current-Driven Source
- 4.1.1 Numerical Model of Current Source to Magnetic Field
- 4.1.2 Example of Current-Source Excitation to Nonlinear Magnetic Field
- 4.2 Harmonic Analysis of Switching Mode Transformer Using Voltage-Driven Source
- 4.2.1 Numerical Model of Voltage Source to Magnetic System
- 4.2.2 Example of Voltage-Source Excitation to Nonlinear Magnetic Field
- 4.3 Three-Phase Magnetic Frequency Tripler Analysis
- 4.3.1 Magnetic Frequency Tripler
- 4.3.2 Nonlinear Magnetic Material and its Saturation Characteristics
- 4.3.3 Voltage Source-Driven Connected to the Magnetic Field
- 4.4 Design of High-Speed and Hybrid Induction Machine using HBFEM
- 4.4.1 Construction of High-Speed and Hybrid Induction Machine
- 4.4.2 Numerical Model of High-Speed and Hybrid Induction Machine using HBFEM, Taking Account of Motion Effect
- 4.4.3 Numerical Analysis of High Speed and Hybrid Induction Machine using HBFEM
- 4.5 Three-Dimensional Axi-Symmetrical Transformer with DC-Biased Excitation
- 4.5.1 Numerical Simulation of 3-D Axi-Symmetrical Structure
- 4.5.2 Numerical Analysis of the Three-Dimensional Axi-Symmetrical Model
- 4.5.3 Eddy Current Calculation of DC-Biased Switch Mode Transformer
- References
- Chapter 5 Advanced Numerical Approach using HBFEM
- 5.1 HBFEM for DC-Biased Problems in HVDC Power Transformers
- 5.1.1 DC Bias Phenomena in HVDC
- 5.1.2 HBFEM for DC-Biased Magnetic Field
- 5.1.3 High-Voltage DC (HVDC) Transformer
- 5.2 Decomposed Algorithm of HBFEM
- 5.2.1 Introduction
- 5.2.2 Decomposed Harmonic Balanced System Equation
- 5.2.3 Magnetic Field Coupled with Electric Circuits
- 5.2.4 Computational Procedure Based on the Block Gauss-Seidel Algorithm
- 5.2.5 DC-Biasing Test on the LCM and Computational Results
- 5.2.6 Analysis of the Flux Density and Flux Distribution Under DC Bias Conditions
- 5.3 HBFEM with Fixed-Point Technique
- 5.3.1 Introduction
- 5.3.2 DC-Biasing Magnetization Curve
- 5.3.3 Fixed-Point Harmonic-Balanced Theory
- 5.3.4 Electromagnetic Coupling
- 5.3.5 Validation and Discussion
- 5.4 Hysteresis Model Based on Neural Network and Consuming Function
- 5.4.1 Introduction
- 5.4.2 Hysteresis Model Based on Consuming Function
- 5.4.3 Hysteresis Loops and Simulation
- 5.4.4 Hysteresis Model Based on a Neural Network
- 5.4.5 Simulation and Validation
- 5.5 Analysis of Hysteretic Characteristics Under Sinusoidal and DC-Biased Excitation
- 5.5.1 Globally Convergent Fixed-Point Harmonic-Balanced Method
- 5.5.2 Hysteretic Characteristic Analysis of the Laminated Core
- 5.5.3 Computation of the Nonlinear Magnetic Field Based on the Combination of the Two Hysteresis Models
- 5.6 Parallel Computing of HBFEM in Multi-Frequency Domain
- 5.6.1 HBFEM in Multi-Frequency Domain
- 5.6.2 Parallel Computing of HBFEM
- 5.6.3 Domain Decomposition
- 5.6.4 Reordering and Multi-Coloring
- 5.6.5 Loads Division in Frequency Domain
- 5.6.6 Two Layers Hybrid Computing
- References
- Chapter 6 HBFEM and Its Future Applications
- 6.1 HBFEM Model of Three-Phase Power Transformer
- 6.1.1 Three-Phase Transformer
- 6.1.2 Nonlinear Magnetic Material and its Saturation Characteristics
- 6.1.3 Voltage Source-Driven Model Connected to the Magnetic Field
- 6.1.4 HBFEM Matrix Equations, Taking Account of Extended Circuits
- 6.2 Magnetic Model of a Single-Phase Transformer and a Magnetically Controlled Shunt Reactor
- 6.2.1 Electromagnetic Coupling Model of a Single-Phase Transformer
- 6.2.2 Solutions of the Nonlinear Magnetic Circuit Model by the Harmonic Balance Method
- 6.2.3 Magnetically Controlled Shunt Reactor
- 6.2.4 Experiment and Computation
- 6.3 Computation Taking Account of Hysteresis Effects Based on Fixed-Point Reluctance
- 6.3.1 Fixed-Point Reluctance
- 6.3.2 Computational Procedure in the Frequency Domain
- 6.3.3 Computational Results and Analysis
- 6.4 HBFEM Modeling of the DC-Biased Transformer in GIC Event
- 6.4.1 GIC Effects on the Transformer
- 6.4.2 GIC Modeling and Harmonic Analysis
- 6.4.3 GIC Modeling Using HBFEM Model
- 6.5 HBFEM Used in Renewable Energy Systems and Microgrids
- 6.5.1 Harmonics in Renewable Energy Systems and Microgrids
- 6.5.2 Harmonic Analysis of the Transformer in Renewable Energy Systems and Microgrids
- 6.5.3 Harmonic Analysis of the Transformer Using a Voltage Driven Source
- 6.5.4 Harmonic Analysis of the Transformer Using a Current-Driven Source
- References
- Appendix
- Appendix I & II
- Matlab Program and the Laminated Core Model for Computation
- Appendix III
- FORTRAN-Based 3D Axi-Symmetrical Transformer with DC-Biased Excitation
- Index
- EULA
