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DC Electrical Circuit Analysis - A Practical Approach

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DC Electrical Circuit Analysis - A Practical Approach

The goal of this text is to introduce the theory and practical application of analysis of DC electrical circuits.

Electrical EngineeringEngineering
Author
James M. Fiore
Publisher
Mohawk Valley Community College
Source
LibreTexts
License
CC BY-NC-SA
Language
EN
Read online Download PDF (open licence)
Contents· 87 sections
  1. 01: Fundamentals
  2. 1.1: Introduction
  3. 1.2: Significant Digits and Resolution
  4. 1.3: Scientific and Engineering Notation
  5. 1.4: The Metric System
  6. 1.5: The Scientific Method
  7. 1.6: Critical Thinking
  8. 1.7: RoHS
  9. 1.8: Summary
  10. 1.9: Exercises
  11. 02: Basic Quantities
  12. 2.01: Introduction
  13. 2.02: An Atomic Model
  14. 2.03: Charge and Current
  15. 2.04: Energy and Voltage
  16. 2.05: Power and Efficiency
  17. 2.06: Energy Cost and Battery Life
  18. 2.07: Resistance and Conductance
  19. 2.08: Instrumentation and Laboratory
  20. 2.09: Summary
  21. 2.10: Exercises
  22. 03: Series Resistive Circuits
  23. 3.01: Introduction
  24. 3.02: Conventional Current Flow and Electron Flow
  25. 3.03: The Series Connection
  26. 3.04: Combining Series Components
  27. 3.05: Ohm's Law
  28. 3.06: Kirchhoff's Voltage Law
  29. 3.07: Series Analysis
  30. 3.08: Potentiometers and Rheostats
  31. 3.09: Summary
  32. 3.10: Exercises
  33. 04: Parallel Resistive Circuits
  34. 4.1: Introduction
  35. 4.2: The Parallel Connection
  36. 4.3: Combining Parallel Components
  37. 4.4: Kirchhoff's Current Law
  38. 4.5: Parallel Analysis
  39. 4.6: Current Limiting - Fuses and Circuit Breakers
  40. 4.7: Summary
  41. 4.8: Exercises
  42. 05: Series-Parallel Resistive Circuits
  43. 5.1: Introduction
  44. 5.2: Series-Parallel Connections
  45. 5.3: Simplifying Series-Parallel Components
  46. 5.4: Series-Parallel Analysis
  47. 5.5: Summary
  48. 5.6: Exercises
  49. 06: Analysis Theorems and Techniques
  50. 6.1: Introduction
  51. 6.2: Source Conversions
  52. 6.3: Superposition Theorem
  53. 6.4: Thevenin's Theorem
  54. 6.5: Norton's Theorem
  55. 6.6: Maximum Power Transfer Theorem
  56. 6.7: Delta-Y Conversions
  57. 6.8: Summary
  58. 6.9: Exercises
  59. 07: Nodal and Mesh Analysis Dependent Sources
  60. 7.1: Introduction
  61. 7.2: Nodal Analysis
  62. 7.3: Mesh Analysis
  63. 7.4: Dependent Sources
  64. 7.5: Summary
  65. 7.6: Exercises
  66. 08: Capacitors
  67. 8.1: Introduction
  68. 8.2: Capacitance and Capacitors
  69. 8.3: Initial and Steady-State Analysis of RC Circuits
  70. 8.4: Transient Response of RC Circuits
  71. 8.5: Summary
  72. 8.6: Exercises
  73. 09: Inductors
  74. 9.1: Introduction
  75. 9.2: Inductance and Inductors
  76. 9.3: Initial and Steady-State Analysis of RL Circuits
  77. 9.4: Initial and Steady-State Analysis of RLC Circuits
  78. 9.5: Transient Response of RL Circuits
  79. 9.6: Summary
  80. 9.7: Exercises
  81. 10: Magnetic Circuits and Transformers
  82. 10.1: Introduction
  83. 10.2: Electromagnetic Induction
  84. 10.3: Magnetic Circuits
  85. 10.4: Transformers
  86. 10.5: Summary
  87. 10.6: Exercises