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The analysis & design of linier circuits
Terdapat bibliografi dan indeks.
CONTENTS:
1. Introduction
1.1 About this book
1.2 Symbols and units
1.3 Circuit variables
1.4 Computational software introduction
2. Basic circuit alanysis
2.1 Element constraints
2.2 Connection constraints
2.3 Combined constraints
2.4 Equivalent circuits
2.5 Voltage and current division
2.6 Circuit reduction
2.7 Computer-aided circuit analysis
3. Circuit analysis techniques
3.1 Node-voltage analysis
3.2 Mesh-current analysis
3.3 Linearity properties
3.4 Thevenin and Norton equivalent circuits
3.5 Maximum signal transfer
3.6 Interface circuit design
4. Active circuits
4.1 Linear dependent sources
4.2 Analysis of circuits with dependent sources
4.3 The operational amplifier
4.4 OP AMP circuit analysis
4.5 OP AMP circuit design
4.6 OP AMP circuit applications
5. Signal waveforms
5.1 Introduction
5.2 The step waveform
5.3 The exponential waveform
5.4 The sinusoidal waveform
5.5 Composite waveform
5.6 Waveform partial descriptors
5.7 Signal and software tools
6. Capacitance and inductance
6.1 The capacitor
6.2 The inductor
6.3 Dynamic OP AMP circuits
6.4 Equivalent capacitance and inductance
7. First and second-order circuits
7.1 RC and RL circuits
7.2 First-order circuit step response
7.3 Initial and final coditions
7.4 First-order circuit response to exponential and sinusoidal inputs
7.5 The series RLC circuit
7.6 The parallel RLC circuit
7.7 Second-order circuit step response
8. Sinusoidal steady-state response
8.1 Sinusoids and phasors
8.2 Phasor circuit analysis with phasors
8.3 Circuit theorems with phasors
8.4 General circuit analysis with phasors
8.5 Energy and power
9. Laplace transforms
9.1 Signal waveforms and transforms
9.2 Basic properties and pairs
9.3 Pole-zero diagrams
9.4 Inverse laplace transforms: classical approach
9.5 Inverse laplace transforms: software approach
9.6 Circuit response using laplace transforms
9.7 Initial value and final value properties
10. S-Domain circuit analysis
10.1 Transformed circuits
10.2 Basic circuit analysis in the s domain
10.3 Circuit theorems in the s domain
10.4 Node-voltage analysis in the s domain
10.5 Mesh-current analysis in the s domain
10.6 Summary of s-domain circuit analysis
11. Network function
11.1 Definition of a network function
11.2 Network functions of one-and two-port circuits
11.3 Network functions and impulse response
11.4 Network functions and step response
11.5 Network functions and sinusoidal steady-state response
11.6 Impulse response and convolution
11.7 Network function and design
12. Frequency response
12.1 Frequency-response descriptors
12.2 Bode diagrams
12.3 First-order low-pass and high-pass responses
12.4 Bandpass and bandstop of RLC circuits
12.5 Bode diagrams with real poles and zeros
12.6 Bode diagrams with complex poles and zeros
12.7 Frequency response and step response
13. Fourier analysis
13.1 Overview of fourier analysis
13.2 Fourier coefficients
13.3 Waveform symmetries
13.4 Circuit analysis using the fourier series
13.5 RMS value and average power
13.6 Fourier transforms
13.7 Circuit analysis using fourier transforms
13.8 Impulse response and convolution
13.9 Parseval
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