Using Mathematica(R) and R, this updated text discusses the modeling and analysis of random experiments using the theory of probability. It illustrates discrete random processes through the classical gambler's ruin problem and its variants. It also covers continuous random processes, such as Poisson and general population models. With over 50 worked examples and more than 200 end-of-chapter problems, the text describes applications of probability to modeling problems in engineering, medicine, and biology. The book's website includes the Mathematica and R programs as well as a solutions manual for instructors upon qualfying course adoption.
Table of Contents:
Some Background on Probability
Introduction
Probability
Conditional probability and independence
Discrete random variables
Continuous random variables
Mean and variance
Some standard discrete probability distributions
Some standard continuous probability distributions
Generating functions
Conditional expectation
Some Gambling Problems
Gambler’s ruin
Probability of ruin
Some numerical simulations
Duration of the game
Some variations of gambler’s ruin
Random Walks
Introduction
Unrestricted random walks
The probability distribution after n steps
First returns of the symmetric random walk
Markov Chains
States and transitions
Transition probabilities
General two-state Markov chains
Powers of the transition matrix for the m-state chain
Gambler’s ruin as a Markov chain
Classification of states
Classification of chains
Poisson Processes
Introduction
The Poisson process
Partition theorem approach
Iterative method
The generating function
Variance in terms of the probability generating function
Arrival times
Summary of the Poisson process
Birth and Death Processes
Introduction
The birth process
Birth process: Generating function equation
The death process
The combined birth and death process
General population processes
Queues
Introduction
The single-server queue
The stationary process
Queues with multiple servers
Queues with fixed service times
Classification of queues
A general approach to the M(λ)/G/1 queue
Reliability and Renewal
Introduction
The reliability function
Exponential distribution and reliability
Mean time to failure
Reliability of series and parallel systems
Renewal processes
Expected number of renewals
Branching and Other Random Processes
Introduction
Generational growth
Mean and variance
Probability of extinction
Branching processes and martingales
Stopping rules
The simple epidemic
An iterative solution scheme for the simple epidemic
Computer Simulations and Projects
Answers and Comments on End-of-Chapter Problems
Appendix
References and Further Reading
Index
Problems appear at the end of each chapter.
About the Author :
Peter W. Jones is a professor and Pro Vice Chancellor for Research and Enterprise at Keele University in Staffordshire, UK. Peter Smith is a Professor Emeritus in the School of Computing and Mathematics at Keele University in Staffordshire, UK.
Review :
! a good resource as a textbook or as a reference to complement other literature, especially with the examples and problems provided. --Biometrics, 67, September 2011