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Power Processing Circuits Design seamlessly infuses important mathematical models and approaches into the optimization of power processing circuits and linear systems. The work unites a constellation of challenging mathematical topics centered on differential equations, linear algebra and implicit functions, with multiple perspectives from electrical, mathematical and physical viewpoints, including power handling components, power filtering and power regulation. Power applications covered encompass first order RC and RL, second order RLC circuits with periodic drives, constant current source, close-loop feedback practices, control loop types, linear regulator, switch-mode regulator and rotation control.

  • Outlines the physical meaning of differential forms and integral forms in designing circuits for power applications
  • Delivers techniques to set up linear algebraic matrix representations of complex circuits
  • Explores key approaches obtaining steady state and describes methods using implicit functions for close-loop representation
  • Describes how to implement vector representation of rotational driving sources
  • Supplemented by MATLAB implementations

1. Power Electronic System Design - p. Page i 2. Cover - p. Page i 3. Front Matter - p. Page ii 4. Table of Contents - p. Page iii 5. Front Matter - p. Page iv 6. Copyright - p. Page v 7. Front Matter - p. Page vi 8. Contents - p. Page vii 9. About the Author - p. Page viii 10. Preface - p. Page ix 11. List of Illustrations - p. Page x 12. List of Tables - p. Page xi 13. 1 : Capacitor and inductor - p. Page xi 14. 2 : First-order circuits - p. Page xi 15. 3 : Current source - p. Page xi 16. Chapter 4 : Second order - p. Page xi 17. Chapter 5 : Gain blocks - p. Page xi 18. Chapter 6 : Feedback approaches - p. Page xi 19. Chapter 7 : Control practices - p. Page xi 20. Chapter 8 : Linear regulator - p. Page xi 21. Chapter 9 : Switch-mode DC/DC converters - p. Page xi 22. Chapter 10 : AC drives, rectification, and inductive loads - p. Page xi 23. Chapter 11 : Rotation, three-phase synthesis, and space vector concepts - p. Page xi 24. Appendix A : Accelerated steady-state analysis for a parallel resonant network fed by nonsinusoidal, half-wave rectified current - p. Page xi 25. Appendix B : Matrix exponential - p. Page xi 26. Appendix C : Example 4.7 MATLAB m-file - p. Page xi 27. Appendix D : Example 8.1 - p. Page xi 28. Appendix E : A general mass-spring- dashpot second-order system; first alternative - p. Page xi 29. Appendix F : A general mass-spring- dashpot second-order system; second alternative - p. Page xi 30. Appendix G : A general mass-spring- dashpot second-order system; third alternative - p. Page xi 31. Appendix H : Matrix exponential—Jordan form - p. Page xi 32. Appendix I : A step-by-step primer on digital power-supply design - p. Page xi 33. Appendix J : Motor winding driven by SCR phase-controlled sine source - p. Page xi 34. Index - p. Page xi

Descripcion
Descripción

Power Processing Circuits Design seamlessly infuses important mathematical models and approaches into the optimization of power processing circuits and linear systems. The work unites a constellation of challenging mathematical topics centered on differential equations, linear algebra and implicit functions, with multiple perspectives from electrical, mathematical and physical viewpoints, including power handling components, power filtering and power regulation. Power applications covered encompass first order RC and RL, second order RLC circuits with periodic drives, constant current source, close-loop feedback practices, control loop types, linear regulator, switch-mode regulator and rotation control.

  • Outlines the physical meaning of differential forms and integral forms in designing circuits for power applications
  • Delivers techniques to set up linear algebraic matrix representations of complex circuits
  • Explores key approaches obtaining steady state and describes methods using implicit functions for close-loop representation
  • Describes how to implement vector representation of rotational driving sources
  • Supplemented by MATLAB implementations

1. Power Electronic System Design - p. Page i 2. Cover - p. Page i 3. Front Matter - p. Page ii 4. Table of Contents - p. Page iii 5. Front Matter - p. Page iv 6. Copyright - p. Page v 7. Front Matter - p. Page vi 8. Contents - p. Page vii 9. About the Author - p. Page viii 10. Preface - p. Page ix 11. List of Illustrations - p. Page x 12. List of Tables - p. Page xi 13. 1 : Capacitor and inductor - p. Page xi 14. 2 : First-order circuits - p. Page xi 15. 3 : Current source - p. Page xi 16. Chapter 4 : Second order - p. Page xi 17. Chapter 5 : Gain blocks - p. Page xi 18. Chapter 6 : Feedback approaches - p. Page xi 19. Chapter 7 : Control practices - p. Page xi 20. Chapter 8 : Linear regulator - p. Page xi 21. Chapter 9 : Switch-mode DC/DC converters - p. Page xi 22. Chapter 10 : AC drives, rectification, and inductive loads - p. Page xi 23. Chapter 11 : Rotation, three-phase synthesis, and space vector concepts - p. Page xi 24. Appendix A : Accelerated steady-state analysis for a parallel resonant network fed by nonsinusoidal, half-wave rectified current - p. Page xi 25. Appendix B : Matrix exponential - p. Page xi 26. Appendix C : Example 4.7 MATLAB m-file - p. Page xi 27. Appendix D : Example 8.1 - p. Page xi 28. Appendix E : A general mass-spring- dashpot second-order system; first alternative - p. Page xi 29. Appendix F : A general mass-spring- dashpot second-order system; second alternative - p. Page xi 30. Appendix G : A general mass-spring- dashpot second-order system; third alternative - p. Page xi 31. Appendix H : Matrix exponential—Jordan form - p. Page xi 32. Appendix I : A step-by-step primer on digital power-supply design - p. Page xi 33. Appendix J : Motor winding driven by SCR phase-controlled sine source - p. Page xi 34. Index - p. Page xi

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Ficha Técnica