9. Two-Port Network Functions and Analysis - Analog Circuits
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9. Two-Port Network Functions and Analysis

9. Two-Port Network Functions and Analysis

The chapter discusses two-port network functions and their analysis, focusing on transfer functions, impedance calculations, and hybrid parameters. It also explores network stability criteria, frequency response analysis, and practical examples such as BJT amplifier analysis. The content is complemented by a summary table and laboratory verification procedures to bridge theoretical concepts with practical applications.

19 sections

Sections

Navigate through the learning materials and practice exercises.

  1. 9
    Two-Port Network Functions And Analysis

    This section introduces the fundamental concepts of two-port network...

  2. 9.1
    Introduction To Network Functions

    Network functions describe the mathematical relationships of input-output...

  3. 9.2
    Transfer Function Analysis

    This section discusses the concept of transfer functions in two-port...

  4. 9.2.1
    Voltage Transfer Function (T_v)

    The Voltage Transfer Function describes the relationship between the output...

  5. 9.2.2
    Current Transfer Function (T_i)

    This section introduces the Current Transfer Function (T_I), defining it as...

  6. 9.3
    Impedance Functions

    This section covers the concepts of input and output impedance in two-port...

  7. 9.3.1
    Input Impedance (Z_in)

    Input impedance is a key component in understanding the behavior of two-port...

  8. 9.3.2
    Output Impedance (Z_out)

    This section focuses on the concept of output impedance (Z_out) in two-port...

  9. 9.4
    Hybrid Parameter Analysis

    This section covers hybrid parameter analysis in two-port networks, focusing...

  10. 9.4.1
    H-Parameter Model

    The h-Parameter Model describes the behavior of two-port networks using...

  11. 9.5
    Network Stability Criteria

    This section discusses the criteria for determining the stability of...

  12. 9.5.1
    Nyquist Criterion

    The Nyquist Criterion establishes the conditions for stability in feedback...

  13. 9.5.2
    Rollett Stability Factor (K)

    The Rollett Stability Factor (K) is a criterion used to determine the...

  14. 9.6
    Frequency Response Analysis

    This section discusses the frequency response analysis of two-port networks,...

  15. 9.6.1
    Bode Plot Construction

    This section discusses the process of constructing Bode plots to analyze the...

  16. 9.6.2
    Poles And Zeros

    This section discusses poles and zeros in the context of frequency response...

  17. 9.7
    Signal Flow Graphs

    This section discusses signal flow graphs and introduces Mason's Gain...

  18. 9.7.1
    Mason's Gain Formula

    Mason's Gain Formula provides a method for calculating the overall transfer...

  19. 9.8
    Summary Table: Network Functions

    This section provides a summary of the core network functions encountered in...

What we have learnt

  • Two-port networks can be described using mathematical functions that define their input-output relationships.
  • Stability criteria are essential for determining the behavior of networks in the frequency domain.
  • Frequency response analysis, including Bode plots, is crucial for understanding filter characteristics.

Key Concepts

-- Transfer Function
A mathematical representation of the relationship between the output and input of a system in the frequency domain.
-- Impedance Functions
Functions that define the input and output impedances of a network, crucial for understanding how signals interact with the network.
-- hParameters
Hybrid parameters used in the characterization of transistor circuits, reflecting both impedance and transmission characteristics.
-- Nyquist Criterion
A stability criterion for control systems, ensuring that there are no right-half plane poles in the system's transfer function.
-- Bode Plot
A graphical representation of a system's frequency response, showing gain and phase versus frequency.

Additional Learning Materials

Supplementary resources to enhance your learning experience.