-
Browse Book Series
- Adhesion and Adhesives: Fundamental and Applied Aspects
- Advances in Additive Manufacturing Technologies
- Advances in Antenna, Microwave and Communication Engineering
- Advances in Biofeedstocks and Biofuels
- Advances in Cyber Security
- Advances in Data Engineering and Machine Learning
- Advances in Disease Diagnosis, Drug Delivery and Treatment
- Advances in E-Mobility
- Advances in Hydrogen Production and Storage
- Advances in Intelligent and Scientific Computing (AISC)
- Advances in Learning Analytics for Intelligent Cloud-IoT Systems
- Advances in Membrane Processes
- Advances in Nanotechnology and Applications
- Advances in Natural Gas Engineering
- Advances in Pipes and Pipelines
- Advances in Production Engineering
- Advances in Solar Cell Materials and Storage
- Applied Functional Materials
- Artificial Intelligence and Soft Computing for Industrial Transformation
- Astrobiology Perspectives on Life in the Universe
- Bioprocessing in Food Science
- Computational Intelligence and Biomedical Engineering
- Computational Intelligence in Industrial Mathematics
- Concise Introductions to AI and Data Science
- Cyber Systems and Quantum Engineering
- Decentralized Systems and Next-Generation Internet
- Diatoms: Biology and Applications
- Digital Convergence in Engineering Systems
- Emerging Trends in Medicinal and Pharmaceutical Chemistry
- Engineering Systems Design for Sustainable Development
- Fintech in a Sustainable Digital Society
- Industry 5.0 Transformation Applications
- Infectious and Rare Diseases
- Innovations in Materials and Manufacturing
- Leading-Edge Breakthroughs in Artificial Intelligence
- Machine Learning in Biomedical Science and Healthcare Informatics
- Marine Nanoscience and Nanotechnology
- Materials Degradation and Failure
- Mathematics and Computer Science
- Next-Generation Computing and Communication Engineering
- Performability Engineering Series
- Robotics and Automation for Modern Applications
- Rotating Machinery Fundamentals and Advances
- Semiconductor Devices and Their Applications
- Studies in Computational Intelligence and Smart Technologies
- Sustainable Computing and Optimization
- Thermoplastic Bionanocomposites Series
Browse Subject Areas
For Authors
Submit a ProposalAdvanced Modeling and Control of DC-DC Converters
One Line Description
Advanced Modeling and Control of DC-DC Converters is essential for anyone looking to master the intricacies of power electronics, as it offers comprehensive insights into advanced modeling techniques, control strategies, and practical applications across various high-impact industries.
Audience
Students, educators, researchers, engineers, and computer scientists studying electrical engineering, power systems, and control systems
Students, educators, researchers, engineers, and computer scientists studying electrical engineering, power systems, and control systems
Description
Advanced Modeling and Control of DC-DC Converters delves into the intricate field of power electronics and its applications for DC-DC converters. This subject plays a crucial role in a wide range of industries, including renewable energy systems, electric vehicle technology, aerospace, telecommunications, and more. This volume focuses on the advanced modeling and control strategies of DC-DC converters, covering various converter topologies, such as buck, boost, buck-boost, and isolated converters, exploring their unique characteristics and challenges. Furthermore, it delves into the integration of advanced semiconductor devices, which offer higher efficiency and power density. One of the key features of this book is the exploration of advanced control algorithms that enhance the performance, stability, and efficiency of DC-DC converters. These algorithms encompass traditional control techniques such as proportional-integral-derivative (PID) control and contemporary approaches like sliding-mode control, adaptive control, and advanced model predictive control. Advanced Modeling and Control of DC-DC Converters provides detailed explanations, design guidelines, and simulation examples to aid readers in implementing these control strategies effectively, making it an invaluable resource for students and industry veterans alike.
Back to Top
Advanced Modeling and Control of DC-DC Converters delves into the intricate field of power electronics and its applications for DC-DC converters. This subject plays a crucial role in a wide range of industries, including renewable energy systems, electric vehicle technology, aerospace, telecommunications, and more. This volume focuses on the advanced modeling and control strategies of DC-DC converters, covering various converter topologies, such as buck, boost, buck-boost, and isolated converters, exploring their unique characteristics and challenges. Furthermore, it delves into the integration of advanced semiconductor devices, which offer higher efficiency and power density. One of the key features of this book is the exploration of advanced control algorithms that enhance the performance, stability, and efficiency of DC-DC converters. These algorithms encompass traditional control techniques such as proportional-integral-derivative (PID) control and contemporary approaches like sliding-mode control, adaptive control, and advanced model predictive control. Advanced Modeling and Control of DC-DC Converters provides detailed explanations, design guidelines, and simulation examples to aid readers in implementing these control strategies effectively, making it an invaluable resource for students and industry veterans alike.
Back to Top
Author / Editor Details
Majid Pakdel, PhD is affiliated with the Department of Electrical Engineering at the University of Zanjan. He has authored five books and over 50 publications in internationally reputed journals and conferences. His research interests include power electronics, artificial intelligence, microcontroller programming, and power system protection.
Majid Pakdel, PhD is affiliated with the Department of Electrical Engineering at the University of Zanjan. He has authored five books and over 50 publications in internationally reputed journals and conferences. His research interests include power electronics, artificial intelligence, microcontroller programming, and power system protection.
Back to Top
Table of Contents
Preface
1. Averaged-Switch Modeling and Simulation
1.1 Introductory Example (Synchronous Buck Converter)
1.2 Synchronous Buck Converter State Equations
1.3 Synchronous Buck Converter Averaging and Dynamic Modeling
1.4 Point of Load Application Example
1.5 Synchronous Buck Example Control-to-Output Transfer Function
1.6 Evaluating Frequency Responses Using MATLAB and Python
1.7 Review of Closed Loop Control Principles
1.8 Review of Feedback Loop Design Principles
1.9 Design Example Synchronous Buck POL Voltage Regulator
1.10 Introduction to LTspice Simulations
1.11 LTspice Simulation Example
1.12 LTspice Simulation Example Discussion
1.13 The PSIM and MATLAB Simulation Example
1.14 The Main Result
1.15 Derivation Part 1
1.16 Null-Double Injection
1.17 Derivation Part 2
1.18 Introduction
1.19 Solution Using the Feedback Theorem
1.20 Discussion
1.21 Introduction to Closed-Loop Voltage Regulator
1.22 Output Impedance
1.23 Summary
1.24 Introduction to Circuit Averaging and Averaged Switch Modeling
1.25 Converter Analysis Using Averaged Switch Models
1.26 Simulations Using Averaged Switch Models
1.27 Design Verification
1.28 Including Losses in Averaged Switch Models
1.29 Alternative Averaged Switch Networks
1.30 Averaged Switch Modeling in DCM
1.31 Combined CCM/DCM Averaged Switch Model
1.32 Library of Spice Averaged Switch Models
1.33 Loop Gain Simulation in CCM/DCM
1.34 Small-Signal AC Modeling of DCM Converters
1.35 DCM Converter Transfer Functions
References
2. Techniques of Design-Oriented Analysis
2.1 Introduction to Extra Element Theorem
2.2 EET Questions and Answers
2.3 EET Derivation
2.4 Practical Applications of EET
2.5 EET Application-Effect of Capacitor ESR
2.6 Graphical Comparison of Impedances
2.7 Analysis of SEPIC Frequency Responses Using EET
2.8 SEPIC Example ZN
2.9 SEPIC Example ZD
2.10 Derivation of ZD Using EET
2.11 SEPIC Example Undamped Frequency Response
2.12 SEPIC Example Impedance Interactions
2.13 Practical Design of Damping
2.14 Introduction to n-Extra Element Theorem (nEET)
2.15 nEET Application Example, Two-Section Filter
2.16 nEET Discussion
2.17 nEET Application Example, Damped Filter Transfer Function
2.18 nEET Frequency Inversion
2.19 nEET Application Example, Output Impedance
2.20 nEET Summary
References
3. Input Filter Design
3.1 Introduction to Electromagnetic Compatibility (EMC) and Interference (EMI)
3.2 Differential and Common-Mode EMI
3.3 EMI Measurement and Simulation Example
3.4 Addition of Input Filter to a Converter
3.5 Impedance Interactions
3.6 Approaches to Input Filter Design
3.7 Overview of MATLAB and Spice Examples
3.8 Control to Output Transfer Function with Input Filter
3.9 Determination of ZD and ZN
3.10 Input Filter Design Criteria
3.11 Corner Frequencies
3.12 Introduction to Input Filter Damping
3.13 Parallel RC Damping
3.14 Damping Networks
3.15 Optimum Damping
3.16 Optimum Damping Summary of Results
3.17 Multi-Stage Cascaded Filters
3.18 Cascaded Filter Design Example
3.19 Input Filter Design Summary
References
4. Current Mode Control
4.1 Introduction to Peak Current Mode Control
4.2 Simple Approximate Model
4.3 Small-Signal Model Based on Simple Approximation
4.4 Synchronous Buck POL Converter Design Example
4.5 Oscillation for D > 0.5
4.6 Stabilization with Addition of an Artificial Ramp
4.7 Revisited Inclusion of Artificial Ramp Design Example
4.8 More Accurate Average Model
4.9 Average Spice CPM Sub-Circuit
4.10 Design Verification Using Average Circuit Simulations
4.11 Small-Signal AC Equivalent Circuit Models
4.12 Transfer Functions of CPM Controlled Converters
4.13 The CPM Controlled Boost Converter Analysis Example
4.14 Comparison of Frequency Responses of Duty‑Cycle and Current-Mode Controlled Converters
4.15 Motivation for Modeling of High Frequency Effects
4.16 Pulse Width Modulator as a Sampler
4.17 Overview of Sampled Data Systems
4.18 Sampled Data Modeling of Switching Converters
4.19 Introduction to Sampled Data Modeling of PCM Controlled Converters
4.20 Development of Sampled Data Model
4.21 Frequency Responses of Sampled Data Models
4.22 The First-Order Approximation
4.23 The Second-Order Approximation
4.24 Summary and Conclusions
4.25 Introduction to Average Current Mode Control
4.26 Transfer Functions of Average Current Mode Controlled Converters
4.27 The ACM Controlled Boost DC-DC Converter Design Example
4.28 Design Verification by Average Circuit Simulations
4.29 Design of the Voltage Control Loop
4.30 The ACM Controlled Boost DC Voltage Regulator Design
References
Index
Back to Top
Preface
1. Averaged-Switch Modeling and Simulation
1.1 Introductory Example (Synchronous Buck Converter)
1.2 Synchronous Buck Converter State Equations
1.3 Synchronous Buck Converter Averaging and Dynamic Modeling
1.4 Point of Load Application Example
1.5 Synchronous Buck Example Control-to-Output Transfer Function
1.6 Evaluating Frequency Responses Using MATLAB and Python
1.7 Review of Closed Loop Control Principles
1.8 Review of Feedback Loop Design Principles
1.9 Design Example Synchronous Buck POL Voltage Regulator
1.10 Introduction to LTspice Simulations
1.11 LTspice Simulation Example
1.12 LTspice Simulation Example Discussion
1.13 The PSIM and MATLAB Simulation Example
1.14 The Main Result
1.15 Derivation Part 1
1.16 Null-Double Injection
1.17 Derivation Part 2
1.18 Introduction
1.19 Solution Using the Feedback Theorem
1.20 Discussion
1.21 Introduction to Closed-Loop Voltage Regulator
1.22 Output Impedance
1.23 Summary
1.24 Introduction to Circuit Averaging and Averaged Switch Modeling
1.25 Converter Analysis Using Averaged Switch Models
1.26 Simulations Using Averaged Switch Models
1.27 Design Verification
1.28 Including Losses in Averaged Switch Models
1.29 Alternative Averaged Switch Networks
1.30 Averaged Switch Modeling in DCM
1.31 Combined CCM/DCM Averaged Switch Model
1.32 Library of Spice Averaged Switch Models
1.33 Loop Gain Simulation in CCM/DCM
1.34 Small-Signal AC Modeling of DCM Converters
1.35 DCM Converter Transfer Functions
References
2. Techniques of Design-Oriented Analysis
2.1 Introduction to Extra Element Theorem
2.2 EET Questions and Answers
2.3 EET Derivation
2.4 Practical Applications of EET
2.5 EET Application-Effect of Capacitor ESR
2.6 Graphical Comparison of Impedances
2.7 Analysis of SEPIC Frequency Responses Using EET
2.8 SEPIC Example ZN
2.9 SEPIC Example ZD
2.10 Derivation of ZD Using EET
2.11 SEPIC Example Undamped Frequency Response
2.12 SEPIC Example Impedance Interactions
2.13 Practical Design of Damping
2.14 Introduction to n-Extra Element Theorem (nEET)
2.15 nEET Application Example, Two-Section Filter
2.16 nEET Discussion
2.17 nEET Application Example, Damped Filter Transfer Function
2.18 nEET Frequency Inversion
2.19 nEET Application Example, Output Impedance
2.20 nEET Summary
References
3. Input Filter Design
3.1 Introduction to Electromagnetic Compatibility (EMC) and Interference (EMI)
3.2 Differential and Common-Mode EMI
3.3 EMI Measurement and Simulation Example
3.4 Addition of Input Filter to a Converter
3.5 Impedance Interactions
3.6 Approaches to Input Filter Design
3.7 Overview of MATLAB and Spice Examples
3.8 Control to Output Transfer Function with Input Filter
3.9 Determination of ZD and ZN
3.10 Input Filter Design Criteria
3.11 Corner Frequencies
3.12 Introduction to Input Filter Damping
3.13 Parallel RC Damping
3.14 Damping Networks
3.15 Optimum Damping
3.16 Optimum Damping Summary of Results
3.17 Multi-Stage Cascaded Filters
3.18 Cascaded Filter Design Example
3.19 Input Filter Design Summary
References
4. Current Mode Control
4.1 Introduction to Peak Current Mode Control
4.2 Simple Approximate Model
4.3 Small-Signal Model Based on Simple Approximation
4.4 Synchronous Buck POL Converter Design Example
4.5 Oscillation for D > 0.5
4.6 Stabilization with Addition of an Artificial Ramp
4.7 Revisited Inclusion of Artificial Ramp Design Example
4.8 More Accurate Average Model
4.9 Average Spice CPM Sub-Circuit
4.10 Design Verification Using Average Circuit Simulations
4.11 Small-Signal AC Equivalent Circuit Models
4.12 Transfer Functions of CPM Controlled Converters
4.13 The CPM Controlled Boost Converter Analysis Example
4.14 Comparison of Frequency Responses of Duty‑Cycle and Current-Mode Controlled Converters
4.15 Motivation for Modeling of High Frequency Effects
4.16 Pulse Width Modulator as a Sampler
4.17 Overview of Sampled Data Systems
4.18 Sampled Data Modeling of Switching Converters
4.19 Introduction to Sampled Data Modeling of PCM Controlled Converters
4.20 Development of Sampled Data Model
4.21 Frequency Responses of Sampled Data Models
4.22 The First-Order Approximation
4.23 The Second-Order Approximation
4.24 Summary and Conclusions
4.25 Introduction to Average Current Mode Control
4.26 Transfer Functions of Average Current Mode Controlled Converters
4.27 The ACM Controlled Boost DC-DC Converter Design Example
4.28 Design Verification by Average Circuit Simulations
4.29 Design of the Voltage Control Loop
4.30 The ACM Controlled Boost DC Voltage Regulator Design
References
Index
Back to Top