Fundamentals of Electric Circuit - Chapter 0: Introduction

Fundamentals of Electric Circuit
Lecturer: Dr. Viet Son Nguyen
Department: Instrumentation & Industrial Informatics
School of Electrical
Address: C1 - 108 – Hanoi University of Science and Technology 
- 2011 -
Fundamentals of Electric Circuits – Viet Son Nguyen - 2011
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FUNDAMENTALS OF ELECTRIC CIRCUITS
References:
1. Fundamentals of Electric Circuits - Charles K. Alexander - McGraw-Hill-2001 (*)
2. Electric circuits - Schaum - McGraw-Hill - 2003 (*)
3. Giáo trình lý thuyết mạch điện - PGS - TS. Lê Văn Bảng - 2005.
4. Fundamentals of electric circuits - David A.Bell - Prentice Hall - 1990.
5. Electric circuits - Norman Blabanian - Mc Graw-Hill - 1994.
6. An introduction to circuit analysis a system approach - Donald E.Scott -
McGraw-Hill - 1994.
7. Methodes d’etudes des circuit electriques - Fancois Mesa - Eyrolles - 1987.
8. Cơ sở kỹ thuật điện 1 & 2 - Nguyễn Bình Thành - 1971.
9. Cơ sở kỹ thuật điện - Quyển 1 - Bộ môn Kỹ thuật đo và Tin học công nghiệp – 2004
(*) 
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents of Part 1: DC circuits
Chapter 1: Basic concepts.
I. Introduction.
II. Systems of Units.
III. Charge and Current.
Chapter 2: Basic laws.
I. Introduction.
II. Ohm’s law
III. Nodes, branches, and loops.
IV. Kirchhoff’s laws.
IV. Voltage.
V. Power and Energy.
VI. Circuit elements.
V. Series resistors and voltage division.
VI. Parallel resistors and current
division.
VII. Wye-delta transformations
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents:
Chapter 3: Methods of analysis.
I. Introduction.
II. Nodal analysis.
III. Mesh analysis.
VI. Nodal versus mesh analysis.
Chapter 4: Circuit Theorems.
I. Introduction.
II. Linearity property
III. Superposition.
IV. Source transformation.
V. Thevenin’s Theorem.
V. Norton’s theorem.
VI. Derivations of Thevenin’s and
Norton’s theorems
VII. Maximum power transfer
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents:
Chapter 5: Operational amplifiers.
I. Introduction.
II. Operational amplifiers.
III. Ideal Op Amp.
IV. Inverting – Non-inverting amplifier.
V. Summing amplifier.
VI. Difference amplifier.
VII. Cascaded Op Amp circuits.
Chapter 6: Capacitors and Inductors.
I. Introduction.
II. Capacitors.
III. Series and parallel capacitors.
IV. Inductors.
V. Series and parallel inductors.
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents:
Chapter 7: First-order circuits.
I. Introduction.
II. The source-free an RC circuit.
III. The source-free an RL circuit.
IV. Singularity functions
V. Step response of an RC circuit.
VI. Step response of an RL circuit.
VII. First-order Op Amp circuit.
Chapter 8: Second-order circuits.
I. Introduction.
II. Finding initial and final values
III. The source-free series RLC
circuit.
IV. The source-free series parallel
RLC circuit.
V. Step response of a series RLC
circuit.
VI. Step response of a parallel
RLC circuit.
VII. General second-order circuits
VIII. Second-order Op Amp circuits.
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents of Part 2: AC circuits
Chapter 9: Sinusoids and phasors.
I. Introduction.
II. Sinusoids.
III. Phases.
IV. Phases relationships for circuit
elements.
V. Impedance and admittance.
VI. Kirchhoff’s law in the frequency
domain.
VII. Impedance combinations.
Chapter 10: Sinusoidal steady-state analysis.
I. Introduction.
II. Nodal analysis.
III. Mesh analysis.
IV. Superposition theorem.
V. Source transformation.
VI. Thevenin and Norton equivalent
circuits.
VII. Op Amp AC circuits.
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents of Part 2: AC circuits
Chapter 11: AC power analysis.
I. Introduction.
II. Instantaneous and average power.
III. Maximum average power transfer.
IV. Effective or RMS values.
V. Apparent power and power
factor.
VI. Complex power.
VII. Conservation of AC power.
VIII. Power factor correction.
Chapter 12: Three-phase circuits.
I. Introduction.
II. Balanced three-phase voltages
III. Balanced Wye-Wye connection.
IV. Balanced Wye-Delta connection.
V. Balanced Delta-Delta connection.
VI. Balanced Delta-Wye connection.
VII. Power in a balanced system.
VIII. Unbalanced three-phase systems
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents of Part 2: AC circuits
Chapter 13: Magnetically coupled circuits.
I. Introduction.
II. Mutual inductance.
III. Energy in a coupled circuit.
IV. Linear transformers.
V. Ideal transformers.
VI. Ideal autotransformers.
VII. Three-phase transformers.
Chapter 14: Frequency response.
I. Introduction.
II. Transfer function
III. The Decibel scale.
IV. Bode plots.
V. Series resonance.
VI. Parallel resonance.
VII. Passive filters.
VIII. Active filters.
IX. Scaling.
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents of Part 3: Advanced circuit analysis
Chapter 15: The Laplace transform.
I. Introduction.
II. Definition of the Laplace transform.
III. Properties of the Laplace transform.
IV. The inverse Laplace transform.
V. Application to circuits
VI. Transfer functions.
VII. The convolution integral.
Chapter 16: The Fourier series.
I. Introduction.
II. Trigonometric Fourier series
III. Symmetry considerations.
IV. Circuit applications.
V. Average power and RMS values.
VI. Exponential Fourier Series.
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FUNDAMENTALS OF ELECTRIC CIRCUITS
Contents of Part 3: Advanced circuit analysis
Chapter 17: Fourier transform
I. Introduction.
II. Definition of the Fourier transform.
III. Properties of the Laplace
transform.
IV. Circuit applications.
V. Parseval’s theorem.
VI. Comparing the Fourier and
Laplace transforms.
Chapter 18: Two port networks.
I. Introduction.
II. Impedance parameters.
III. Admittance parameters.
IV. Hybrid parameters.
V. Transmission parameters.
VI. Relationships between
parameters.
VII. Interconnection of networks.