Sanjaya Maniktala
Switching Power Supply Design & Optimization
Sanjaya Maniktala
Switching Power Supply Design & Optimization
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Features techniques for designing power supplies, including resonant (LLC) converters. This book explains how to design reliable, high-performance switching power supplies for electronics.
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Features techniques for designing power supplies, including resonant (LLC) converters. This book explains how to design reliable, high-performance switching power supplies for electronics.
Produktdetails
- Produktdetails
- Verlag: McGraw-Hill Education - Europe
- 2 ed
- Seitenzahl: 576
- Erscheinungstermin: 13. März 2014
- Englisch
- Abmessung: 289mm x 224mm x 40mm
- Gewicht: 1672g
- ISBN-13: 9780071798143
- ISBN-10: 0071798145
- Artikelnr.: 36269708
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
- Verlag: McGraw-Hill Education - Europe
- 2 ed
- Seitenzahl: 576
- Erscheinungstermin: 13. März 2014
- Englisch
- Abmessung: 289mm x 224mm x 40mm
- Gewicht: 1672g
- ISBN-13: 9780071798143
- ISBN-10: 0071798145
- Artikelnr.: 36269708
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
Sanjaya Maniktala is a Systems and Product Architecture Engineer with Freescale Semiconductor. He holds two patents in power supply technology and has written numerous articles on power supply design, appearing in such magazines as Power Electronics Technology, EDN, Electronic Engineering, and Planet Analog. He lives in Gilbert, Arizona.
Ch. 1. Basic Switching Topologies and Selection of Components
Ch. 2. Constructing Modern DC-DC Converters from Basic Topologies
Ch. 3. Tapped-Inductor Topologies and Solved Examples
Ch. 4. Boundary/Discontinuous Conduction Mode Equations and Solved Examples
Ch. 5. Loop Stability of DC-DC Converters
Ch. 6. Charge Pumps, Techniques, and Applications of Modern DC-DC
Converters
Ch. 7. Reference Equations and Graphs for DC-DC Converter Design
Ch. 8. Front-End of Off-Line Power Supplies
Ch. 9. Isolated Topologies for Off-Line Applications
Ch. 10. Concepts in Magnetics and Core Size Selection
Ch. 11. Selecting Inductors for DC-DC Converters
Ch. 12: Flyback Transformer and Clamp Design
Ch. 13. Forward Converter Magnetics Design
Ch. 14. Singled and Multilayer PCGs and Layout
Ch. 15. Thermal Management
Ch. 16. Practical EMI Filter Design
Ch. 17. More Things to Try
Ch. 18. Reliability, Testing, and Safety Issues
Appendix
FAQ: Components and Topologies
Ch. 2. Constructing Modern DC-DC Converters from Basic Topologies
Ch. 3. Tapped-Inductor Topologies and Solved Examples
Ch. 4. Boundary/Discontinuous Conduction Mode Equations and Solved Examples
Ch. 5. Loop Stability of DC-DC Converters
Ch. 6. Charge Pumps, Techniques, and Applications of Modern DC-DC
Converters
Ch. 7. Reference Equations and Graphs for DC-DC Converter Design
Ch. 8. Front-End of Off-Line Power Supplies
Ch. 9. Isolated Topologies for Off-Line Applications
Ch. 10. Concepts in Magnetics and Core Size Selection
Ch. 11. Selecting Inductors for DC-DC Converters
Ch. 12: Flyback Transformer and Clamp Design
Ch. 13. Forward Converter Magnetics Design
Ch. 14. Singled and Multilayer PCGs and Layout
Ch. 15. Thermal Management
Ch. 16. Practical EMI Filter Design
Ch. 17. More Things to Try
Ch. 18. Reliability, Testing, and Safety Issues
Appendix
FAQ: Components and Topologies
Ch. 1. Basic Switching Topologies and Selection of Components
Ch. 2. Constructing Modern DC-DC Converters from Basic Topologies
Ch. 3. Tapped-Inductor Topologies and Solved Examples
Ch. 4. Boundary/Discontinuous Conduction Mode Equations and Solved Examples
Ch. 5. Loop Stability of DC-DC Converters
Ch. 6. Charge Pumps, Techniques, and Applications of Modern DC-DC
Converters
Ch. 7. Reference Equations and Graphs for DC-DC Converter Design
Ch. 8. Front-End of Off-Line Power Supplies
Ch. 9. Isolated Topologies for Off-Line Applications
Ch. 10. Concepts in Magnetics and Core Size Selection
Ch. 11. Selecting Inductors for DC-DC Converters
Ch. 12: Flyback Transformer and Clamp Design
Ch. 13. Forward Converter Magnetics Design
Ch. 14. Singled and Multilayer PCGs and Layout
Ch. 15. Thermal Management
Ch. 16. Practical EMI Filter Design
Ch. 17. More Things to Try
Ch. 18. Reliability, Testing, and Safety Issues
Appendix
FAQ: Components and Topologies
Ch. 2. Constructing Modern DC-DC Converters from Basic Topologies
Ch. 3. Tapped-Inductor Topologies and Solved Examples
Ch. 4. Boundary/Discontinuous Conduction Mode Equations and Solved Examples
Ch. 5. Loop Stability of DC-DC Converters
Ch. 6. Charge Pumps, Techniques, and Applications of Modern DC-DC
Converters
Ch. 7. Reference Equations and Graphs for DC-DC Converter Design
Ch. 8. Front-End of Off-Line Power Supplies
Ch. 9. Isolated Topologies for Off-Line Applications
Ch. 10. Concepts in Magnetics and Core Size Selection
Ch. 11. Selecting Inductors for DC-DC Converters
Ch. 12: Flyback Transformer and Clamp Design
Ch. 13. Forward Converter Magnetics Design
Ch. 14. Singled and Multilayer PCGs and Layout
Ch. 15. Thermal Management
Ch. 16. Practical EMI Filter Design
Ch. 17. More Things to Try
Ch. 18. Reliability, Testing, and Safety Issues
Appendix
FAQ: Components and Topologies







