2nd Edition

Markov Processes

By James R. Kirkwood Copyright 2026
345 Pages 34 B/W Illustrations
by Chapman & Hall

345 Pages 34 B/W Illustrations
by Chapman & Hall

345 Pages 34 B/W Illustrations
by Chapman & Hall

Markov Processes provides a bridge from an undergraduate probability course to a course in stochastic processes. The text is designed to be understandable to students who have taken an undergraduate probability course without needing an instructor to fill in any gaps. Clear, rigorous, and intuitive, the second edition builds on the successful first, used in courses and as a reference for... Read more

Preface

1. Review of Probability

Short History

Review of Basic Probability Definitions

Some Common Probability Distributions

Bernoulli Distribution

Binomial Distribution

Geometric Distribution

Negative Binomial Distribution

Poisson Distribution

Properties of a Probability Distribution

Conditional Probability

Independent Events

Random Variables

Expected Value of a Random Variable

Properties of the Expected Value

Expected Value of a Random Variable with Common Distributions

Bernoulli Distribution

Binomial Distribution

Geometric Distribution

Negative Binomial Distribution

Poisson Distribution

Functions of a Random Variable

Joint Distributions

Generating Functions

Probability Generating Functions

Moment Generating Functions

Exercises

 

2. Discrete-Time, Finite-State Markov Chains

Introduction

Notation

Transition Matrices

Directed Graphs: Examples of Markov Chains

Random Walk with Reflecting Boundaries

Gambler’s Ruin

Ehrenfest Model

Central Problem of Markov Chains

Condition to Ensure a Unique Equilibrium State

Finding the Equilibrium State

Transient and Recurrent States

Indicator Functions

Perron–Frobenius Theorem

Absorbing Markov Chains

Mean First Passage Time

Mean Recurrence Time and the Equilibrium State

Fundamental Matrix for Regular Markov Chains

Dividing a Markov Chain into Equivalence Classes

Periodic Markov Chains

Reducible Markov Chains

Summary

Exercises

 

3. Discrete-Time, Infinite-State Markov Chains

Renewal Processes

Delayed Renewal Processes

Equilibrium State for Countable Markov Chains

Physical Interpretation of the Equilibrium State

Null Recurrent versus Positive Recurrent States

Difference Equations

Branching Processes

Random Walk in Zd

Exercises

 

4. Exponential Distribution and Poisson Process

Continuous Random Variables

Cumulative Distribution Function (Continuous Case)

Exponential Distribution

o(h) Functions

Exponential Distribution as a Model for Arrivals

Memoryless Random Variables

Poisson Process

Poisson Processes with Occurrences of Two Types

Exercises

 

5. Continuous Time Markov Chains

Introduction

Generators of Continuous Markov Chains: The Kolmogorov

Forward and Backward Equations

Connections of the Infinitesimal Generator, the Embedded

Markov Chain, Transition Rates, and the Stationary Distribution

Connection between the Steady State of a Continuous Markov

Chain and the Steady State of the Embedded Matrix

Explosions

Birth and Birth–Death Processes

Birth Process (Forward Equation)

Birth Process (Backward Equation)

Birth and Death Processes

Forward Equations for Birth–Death Processes

Birth–Death Processes: Backward Equations

Recurrence and Transience in Birth–Death Processes

 

6. Queuing Models and Detailed Balance Equations

M/M/1 Model

M/M/1/K Queue: One Server (Size of the Queue Is Limited)

Detailed Balance Equations

M/M/K Model

M/M/c/K Queue: c Servers (Size of the Queue Is Limited to K)

M/M/∞ Model

Exercises

 

7. Reversible Markov Chains

Random Walks on Weighted Graphs

Discrete-Time Birth–Death Process as a Reversible Markov Chain

Continuous-Time Reversible Markov Chains

Exercises

 

8.Digraphs

Exercises

 

Glossary of Terms

Bibliography

Index

 

Biography

James R. Kirkwood holds a Ph.D. from the University of Virginia. He has had ten mathematics textbooks published on various topics including calculus, real analysis, mathematical biology and mathematical physics. His original research was in mathematical physics, and he co-authored the seminal paper in a topic now called Kirkwood-Thomas Theory in mathematical physics. During the summer, he teaches real analysis to graduate students at the University of Virginia. He has been awarded several National Science Foundation grants. Dr. Kirkwood’s books for CRC Press include, An Introduction to Analysis, third edition ©2024; A Transition to Advanced Mathematics (with Raina S. Robeva) ©2024; Linear Algebra (with Bessie H. Kirkwood) ©2024; Elementary Linear Algebra (with Bessie H. Kirkwood) ©2023.