1st Edition

Phase-Locked Loops Theory and Applications

By John L. Stensby Copyright 1997
    400 Pages
    by CRC Press

    Applications of phase-locked loops play an increasingly important role in modern electronic systems, and the last 25 years have seen new developments in the underlying theories as well.
    Phase-Locked Loops presents the latest information on the basic theory and applications of PLLs. Organized in a logical format, it first introduces the subject in a qualitative manner and discusses key applications. Next, it develops basic models for components of a PLL, and these are used to develop a basic PLL model. The text then discusses both linear and nonlinear methods that are used to analyze the basic PLL model.
    This book includes extensive coverage of the nonlinear behavior of phase-locked loops, an important area of this field and one where exciting new research is being performed. No other book available covers this critical area in such careful detail. Improvements brought about by the advent of the personal computer, especially in the use of numerical results, are integrated into the text. This book also focuses on PLL component technologies used in system implementation.

    ELEMENTARY THEORY AND APPLICATIONS
    Introduction
    The Phase and Frequency of a Signal Relative to a Reference
    A Generic Problem
    The Phase-Locked Loop
    Basic Applications
    Phase-Locked Loop Literature
    Topical Outline of the Text
    Modeling the Phase-Locked Loop
    Modeling PLL Components
    Modeling the Nonlinear PLL
    Modeling the Linear PLL
    Modeling a PLL with an Angle-Modulated Reference Source
    Modeling a PLL with a Noisy Reference Source
    Modeling the Limiter Phase Detector
    Modeling the Long Loop
    Appendices
    Linear Analysis of Common First- and Second-Order PLL
    The First-Order PLL
    The Second-Order PLL with a Perfect Integrator
    The Second-Order PLL with Imperfect Integrator
    Phase-Locked Loop Components and Technologies
    Phase Detectors-Analog and Digital
    Loop Filters
    Voltage-Controlled Oscillators
    Lock Detection
    NONLINEAR PLL ANALYSIS
    Nonlinear PLL Behavior in the Absence of Noise
    First-Order PLL with Constant Frequency Reference
    A Second-Order PLL Using a Perfect Integrator
    A Second-Order PLL Containing an Imperfect Integrator Loop Filter
    Effects of IF Filtering on the Long Loop
    Appendices
    Stochastic Methods for the Nonlinear PLL Model
    The Random Walk-A Simple Markov Process
    The First-Order Markov Process
    The Vector Markov Process
    Noise in the Nonlinear PLL Model
    Qualitative Nature of and Models for the Phase Error
    Noise in the First-Order PLL
    Noise in the Second-Order PLL
    Numerical Methods for Noise Analysis in the Nonlinear PLL Model
    Computing an Approximation to Steady-State p1( 1,Y)

    Biography

    John L. Stensby